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COMMISSION STAFF WORKING DOCUMENT IMPACT ASSESSMENT Accompanying the document Commission Regulation (EU) amending Annex III to Regulation (EC) No 1925/2006 of the European Parliament and of the Council as regards trans fat, other than trans fat naturally occurring in animal fat, in foods intended for the final consumer

SWD/2019/0162 final

Table of contents

1.Introduction: political and legal context9

2.Problem definition13

2.1.What is the problem?13

2.2.What are the problem drivers?20

2.3.How would the problem evolve23

3.Why should the EU act?23

3.1.Legal basis23

3.2.Subsidiarity: Necessity of EU action24

3.3.Subsidiarity: Added value of EU action25

4.Objectives: What is to be achieved?26

4.1.General objectives26

4.2.Specific objectives26

5.What are the available policy options?28

5.1.What is the baseline from which options are assessed?28

5.2.Description of the policy options32

5.3.Options discarded at an early stage39

6.What are the impacts of the policy options?40

6.1.Social impacts40

6.1.1.Impacts on health40

6.1.2.Impacts on health inequalities44

6.2.Economic impacts45

6.2.1.Impacts on direct costs for businesses and public authorities45

6.2.2.Impacts on consumers47

6.2.3.Internal Market impacts49

6.2.4.Competitiveness and trade impacts50

6.2.5.Impacts on SMEs51

6.3.Environmental impacts53

6.4.Impacts of combined options55

7.How do the options compare?55

7.1.General objective 1: Ensuring a high level of health protection for EU and Specific objective 1: Reduce intake of industrial trans fats in the entire EU for all population groups56

7.1.1.Direct health impacts56

7.1.2.Direct and indirect economic impacts of changes in health status56

7.2.General objective 2: Contribute to the effective functioning of the Internal Market for foods that could contain industrial trans fats and Specific objective 2: Ensure that the same rules/conditions apply in the EU to the manufacturing and placing on the market of foods that could contain industrial trans fats, so as to ensure legal certainty of EU food business operators within and outside the EU58

7.3.General objective 3: Contribution to reducing health inequalities, one of the objectives of Europe 202060

7.4.Effectiveness60

7.5.Efficiency (balance of costs and benefits)62

7.6.Coherence with other EU policy objectives65

7.7.Proportionality65

7.8.Specific tests: SME test66

8.Preferred option68

9.How will actual impacts be monitored and evaluated?71

ANNEX 1: Procedural information72

1.Lead dg, decide planning72

2.Organisation and timing73

3.Consultation of the RSB74

4.Evidence, sources and quality77

ANNEX 2: Stakeholder consultation78

1.Introduction78

2.Stakeholder groups covered by the consultation activities78

3.Consultation activities already carried out before the launch of the IA79

4.Outline of the Consultation strategy for the IA on an initiative to limit industrial trans fats intakes in the EU80

5.Results of the Consultation activities for the IA on an initiative to limit industrial trans fats intakes in the EU81

6.Conclusion87

ANNEX 3: Who is affected and how?89

1.Practical implications of the initiative89

2.Summary of costs and benefits91

ANNEX 4: Analytical methods93

1.Study methodology development93

2.Data collection and review93

3.Screening of impacts and assessment of significance98

4.Analysis of impacts98

5.Validation consultation103

6.Strengths and limitations of the method105

7.Discussion of information gaps and uncertainties106

ANNEX 5: Trans fats – a general presentation108

ANNEX 6: Trans fats consumption and its negative impact on health and intake recommendations111

ANNEX 7: Health effects of ruminant versus industrial trans fats and the potential to limit the associated health problem by addressing their intake116

ANNEX 8: Current status of EU and national measures addressing the trans fats problem and consumer knowledge regarding trans fats118

ANNEX 9: Additional information on trans fats intakes in the population and presence in foods123

ANNEX 10: Discussion of the baseline scenario139

ANNEX 11: Intervention logic for the different options143

ANNEX 12: Impacts screening152

ANNEX 13: Assumptions for the health impacts assessment162

ANNEX 14: Additional information on the Sensitivity Analysis168

1.Impact on health care costs (direct and indirect)168

2.Impact on disability-adjusted life years168

ANNEX 15: Impacts on health inequalities and details on appraisal of general objective 3: contribution to reducing health inequalities, one of the objectives of Europe 2020169

ANNEX 16: Impacts on administrative costs for businesses, understanding the requirements and verify compliance175

ANNEX 17: Impacts on compliance costs for businesses179

1.Compliance costs – product testing179

2.Costs of reformulating products181

3.Costs of ingredients187

4.Costs of labelling189

ANNEX 18: Administrative cost for public authorities192

1.Costs of establishing the policy192

2.Costs of consumer information campaigns193

3.Costs of monitoring and enforcement194

ANNEX 19: Assumptions for the impact assessment on consumer prices197

ANNEX 20: Evidence collected by the external contractor concerning the assumptions for the impact assessment on product attributes200

ANNEX 21: Expected impact of each option on the Internal Market201

ANNEX 22: Details on the expected impact of each option on competitiveness and international trade205

ANNEX 23: Evidence on the impacts on SMEs and expected impact of each option on SMEs206

ANNEX 24: Evidence on substitutes for partly hydrogenated oils, environmental impacts of palm oil as well as environmental impacts of alternatives; expected impact of each option on the environment207

ANNEX 25: Impacts of combined options212

1.Combining mandatory labelling with legislation (2 + 1b or 2 + 3b)212

2.Combining mandatory labelling with voluntary agreement (2 + 1a or 2 + 3a)213

ANNEX 26: Further details for appraisal of General objective 1 specific objective 1215

1.Additional details for section 7.1.1 on direct health impacts215

2.Additional details for section 7.1.2 direct and indirect economic impacts of changes in health status216

3.Further details for appraisal of specific objective 1: Reduce intake of industrial trans fats in the entire EU for all population groups216

ANNEX 27: Further details for appraisal of specific objective 2: Ensure that the same rules/conditions apply in the EU to the manufacturing and placing on the market of foods that could contain industrial trans fats, so as to ensure legal certainty of EU food business operators within and outside the EU219

ANNEX 28: Ex ante analyses in the US and Canada on Evidence on legislation to ban partly hydrogenated oils221

ANNEX 29: Consolidated information collected through interviews with EU level business associations by223

ANNEX 30: Aggregated evidence for each type of impact: a list of indicators; the description of the evidence obtained, either quantitative or qualitative; and sources for that evidence304

ANNEX 31: Validation consultation by ICF, survey instrument439

ANNEX 32: ICF Country profiles461

ANNEX 33: Questionnaire for the Open Public Consultation466

List of abbreviations

 

CAOBISCO        Association of Chocolate, Biscuit and Confectionery Industries of
           the European Union

CI            Confidence Interval

EFSA            European Food Safety Authority

FEDIOL        EU vegetable oil and protein meal industry association

HOTREC        Association of hotels, restaurants and cafés in Europe

IA            Impact Assessment

IIA             Inception IA

IMACE        European Margarine Association

ISG            Inter-services Steering Group

JRC            the Joint Research Centre of the European Commission

NGO            Non-governmental Organisation

OPC             (On-line) Open Public Consultation (carried out for this IA)

RR            Relative Risk

RSPO            Roundtable on Sustainable Palm Oil

SKU            Stock Keeping Unit

SMEs             Micro, Small and Medium-sized Enterprises

SWD            Commission Staff Working Document

TFEU            Treaty on the Functioning of the European Union

WHO            World Health Organisation

Glossary

Term or acronym

Meaning or definition

Cardio vascular disease

a class of diseases affecting the heart or blood vessels. It includes coronary artery disease as well as stroke, heart failure, arrhythmia, aortic aneurysms, among others

Coronary artery disease

a group of diseases that includes: stable angina, unstable angina, myocardial infarction, and sudden cardiac death. It is within the group of cardio vascular diseases of which it is the most common type

Coronary heart disease

a health condition that reduces blood flow through the coronary arteries to the heart and typically results in chest pain or heart damage. It is the outcome of coronary artery disease

Deforestation

the action or process of clearing of forests

Disability adjusted life years

one disability adjusted life year can be thought of as one lost year of "healthy" life. The sum of disability adjusted life years across the population, or the burden of disease, can be thought of as a measurement of the gap between current health status and an ideal health situation where the entire population lives to an advanced age, free of disease and disability. Disability-adjusted life years measure overall disease burden. It expresses that burden as the number of years lost due to ill health, disability or early death

Food business operator

the natural or legal person responsible for ensuring that the requirements of food law are met within the food business under their control

Isocaloric

having similar caloric values

Labour cost

the total expenditure borne by employers in order to employ workers, including social security contributions and other non-wage labour costs

Markov model

a state-transition model used to model randomly changing systems where it is assumed that future states depend only on the current state not on the events that occurred before it

Mortality rate

a measure of the number of deaths in a given population per unit of time

Non-prepacked food

foods sold without packaging

Partially hydrogenated oil:

a liquid oil which has only been processed through partial hydrogenation and is semi-solid

Pre-packed food

any food that is put into packaging before being put on sale and that cannot be altered without opening or changing the packaging (as defined article 2 (2) (e) of Regulation (EU) No 1169/2011)

Trans fats

also called Trans fatty acids and sometimes abbreviated as TFAs, are a particular type of unsaturated fatty acids that are present in foods .'Trans' describes the specific and rather unusual configuration of the unsaturated bond in a fatty acid, while generally fats in foods contain unsaturated fatty acids in 'cis' configuration

Annex I point 4 of Regulation (EU) No 1169/2011 on the provision of food information to consumers defines: ' " trans fat" means fatty acids with at least one non-conjugated (namely interrupted by at least one methylene group) carbon-carbon double bond in the trans configuration'

There are two sources of trans fats: those produced industrially (so called industrial trans fats) and those naturally produced by ruminant animals (ruminant trans fats), which are present in derived food products, such as dairy products or meat from cattle, sheep or goats


1.1.

1.Introduction: political and legal context

Trans fats (also called 'trans fatty acids' and sometimes abbreviated as TFAs) are a particular type of unsaturated fatty acids that are present in some foods 1 as natural trans fats in ruminant (dairy and meat) products 2 or as industrially manufactured trans fats. Industrial trans fats, in the form of partial hydrogenated oils, are added to improve stability or texture or for other technological reasons, in a variety of products including pastries and chocolates. One of the common substitution fats with similar technological and cost advantages is palm oil. Trans fats are not synthesised by the human body and are not required in the human diet.

There is scientific consensus that trans fats intake has a negative effect on human health: more specifically, consumption of trans fats has a negative impact on blood cholesterol levels and increases the risk of coronary heart disease 3 more than any other macronutrient compared on a per-calorie basis; the risk of dying from heart disease is 20-32 % higher when consuming 2 % of the daily energy intake from trans fats instead of consuming the same energy amount from carbohydrates, saturated fatty acids, cis monounsaturated fatty acids and cis polyunsaturated fatty acids. 4  

The European Food Safety Authority recommends that trans fats intakes should be 'as low as is possible within the context of a nutritionally adequate diet'. 5 The World Health Organisation recommends that less than 1 % of dietary energy intake should come from consuming trans fats 6 (which equates to maximum 2,2 g of trans fats per day for a person requiring 2000 kilocalories). 7 Currently, in total 7 Member States have introduced legislation regarding intakes of industrial trans fats. In particular, 6 Member States (Denmark, Austria, Hungary, Latvia, Lithuania and Slovenia) have set legal limits and one (Romania) has recently notified a draft legal measure. The legal limit of maximum 2 % of industrially produced trans fats in foods introduced in several Member States is in line both with the intake recommendations of the European Food Safety Authority and of WHO: typical intakes of total fat in European countries are reported to be at a maximum of 48 % of the daily energy intake (95th percentile). 8 Provided that all foods contain trans fats at 2 % in a very unlikely, extreme scenario, intake levels would be at 0.96 % of energy intake, below the WHO recommendation. Assuming a 2000 kilocalorie diet, 0.96 % of daily energy intake equates to a maximum of 2.1 g of industrial trans fats intake per day. Empirical evidence from Denmark, where a 2 % legal limit per 100 g fat content applies, suggests that (in 2014) the average industrial trans fats intake was 0.009 % of energy intake. 9 This very low level could be considered to be in line with the recommendation of the European Food Safety Authority ('as low as possible'). In this context it is noteworthy that some small amounts of trans fats are generated during the normal processing and production of foods. Ruminant trans fats sources typically contribute between 0.3 and 0.8 % of the daily energy intake depending on dietary habits across Europe. 10 Thus, even the combination of ruminant and industrial trans fats typically amount to 0.309 to 0.809 % of daily energy intake.

The issue of trans fats was intensively debated during the negotiations that preceded the adoption of Regulation (EU) No 1169/2011 on food information to consumers 11 . This Regulation does not include trans fats in the list of mandatory nutrition declaration since the co-legislator was not convinced that the introduction of trans fats amounts on food labels would consistently enable consumers to identify the healthier choice. In addition, the efficiency of such measure was questioned since it would not apply to non-pre-packed foods, all of which may contain high levels of industrial trans fats. Finally, trans fats labelling would not distinguish between ruminant and industrial trans fats. Regulation (EU) No 1169/2011 also prohibits operators from declaring the trans fats content of foods on nutrition labels on a voluntary basis. It was considered that this possibility would be used as a marketing tool by some operators only and could lead to consumers' confusion. Therefore, the co-legislator agreed that instead of looking only into the labelling aspect, the Commission should assess the impacts of all means to enable consumers to make healthier choices, including restrictions on the use of trans fats. A report was requested by Article 30(7) of Regulation (EU) No 1169/2011 of the European Parliament and the Council on the provision of food information to consumers.

In its 2015 report 12 , the Commission noted that average trans fats intake in the EU is below nationally and internationally recommended levels, however, this conclusion is not valid for all population groups. Food products with high industrial trans fats content remain available on the EU market, thus, reducing industrial trans fats intakes entails public health gains. The report concluded that a legal limit for industrial trans fats would be the most effective measure in terms of public health, consumer protection and compatibility with the Internal Market but that further investigation is required.

Numerous calls for a reduction of trans fats intakes in the EU have emerged from the agenda of the European Parliament and the Council, individual Member States, and stakeholders. Member States' concerns on industrial trans fats had been voiced in the context of the High Level Group on nutrition and physical activity 13 where 22 Member States indicated industrial trans fats as one of the priorities with respect to reformulation or nutrient policy. 14 Health EU Ministers exchanged views on trans fats at two informal Council meetings: in April 2015 in Riga, a large majority of intervening delegations expressed support to the necessity of reducing industrial trans fats levels in food products. 15 In September 2015 in Luxembourg, Member States discussed possible solutions to reduce industrial trans fats levels in foods. Some delegations called for legal limits to industrial trans fats presence in foods at EU level, while others favoured self-regulatory approaches based on product reformulation. 16  

Council Conclusions of 2014 and of 2016 noted with concern 17 'the high intake of …trans fatty acids…' and 18 'The prevalence of overweight, obesity and other diet-related non-communicable diseases in the European population is too high and is still rising. This has a negative impact on life expectancy, reducing Union citizens' quality of life and affecting society, for example by threatening the availability of a healthy and sustainable workforce and inducing high healthcare costs which may affect the sustainability of the healthcare systems. It thus also imposes an economic burden on the Union and its Member States. (…) Nutrition plays an important role in this context, alongside other lifestyle-related matters: (…). In some Member States, people are still exposed to high amounts of trans fatty acids'. 19

The European Parliament adopted on 26 October 2016 a resolution calling on the Commission to propose legislation setting a limit on industrial trans fats within two years and to carry out an impact assessment evaluating impacts on operators and consumers. 20

Following the adoption of the Commission report, a considerable number of external stakeholders, such as associations representing producers and consumer representatives have expressed a keen interest in this issue. 21   22 All stakeholders that intervened in the debate on trans fats so far have welcomed the Commission's report and/or supported an EU initiative to set legal limits to industrial trans fats in foods, both on the consumers' side 23 and on the industry's side. 24

In this context, of particular note is the joint letter21 addressed on 15 October 2015 to the European Commission by four major food manufacturers, together with leading consumers' and health NGOs and the Standing Committee of European Doctors. Also of note are the number of reformulation commitments to lower the content of industrial trans fats in foods made in the past years by food manufacturers in the EU Platform for Diet, Physical Activity and Health. 25 The positions of industry stakeholders (also well summarised in a statement by Food Drink Europe of 19 November 2015) 26 indicate that the industrial trans fats content of foods can effectively be lowered without disproportionate cost 27 , that an EU initiative would benefit consumers and the industry by setting a level playing field in the Internal Market, and that particular support might be needed for SMEs.

Stakeholders 28   29 also broadly supported national initiatives that set limits to the presence of industrial trans fats in foods.

At the global level, calls for reduction of trans fats intakes led to the REPLACE initiative ('trans fat free by 2023') of WHO in May 2018. 30 WHO recommends to ‘legislate or enact regulatory actions to eliminate industrially-produced trans fats’.

The objective of this impact assessment is to enable an informed decision on how to deal with trans fats, taking into account the potential economic, social and environmental impacts of different policy options, including implementing the option of a legal limit for industrial trans fats. In this context, the factual situation, as regards the issue of excessive trans fats intakes in the EU and its underlying causes and the policy implications of available alternative approaches to setting a legal limit, i.e. mandatory labelling of trans fats and voluntary approaches to food reformulation, are examined. Besides the public health dimension and ensuring a sound basis for consumer choice, the impact assessment also examines the consequences of the policy options available for the businesses, including SMEs and the Single Market.

In addition to the report adopted by the Commission in 2015 on trans fats 31 , the impact assessment takes into account various studies on trans fats at the European level  32   33   34 and internationally 35 , investigating the impacts of trans fats and the potential effects of alternative policy options to limit their use. These build on analyses by the Joint Research Centre of the Commission (JRC) 36 , scientific opinions of the European Food Safety Authority5  37 , international reports by the World Health Organization6  38 and academic studies. In 2017, the European Commission commissioned an external study by the contractor ICF to support this IA. 39

2.Problem definition 

2.1.What is the problem? 

Trans fats are an important risk factor for the development of coronary heart disease5 37, the single leading cause of mortality in the EU. 40 Cardio vascular disease comprises a range of diseases that affect the heart, including heart failure (which can be caused by coronary heart disease, among other factors), arrhythmia (abnormal heart beat) and heart valve problems, and imposes substantial health burdens in the EU. It is estimated that 49 million people live with cardio vascular disease and that the condition imposes costs of more than €200 billion each year in the EU. 41 The European Food Safety Authority and the World Health Organization recommend that their consumption is limited or minimised.5 6  42 Industrial trans fats intakes are particularly high among consumers with lower income, who are also the most at risk of coronary heart disease 43 and intakes continue to contribute to the absolute health and economic disease burdens of cardio vascular disease.

The precise contribution of trans fats intake to health risks and associated economic problems are difficult to assess for the entire EU due to limited data available for trans fats intakes in the entire EU. There is empirical evidence that the introduction of a legal limit for industrial trans fats reduced deaths caused by cardiovascular disease. 44   45 Over 3 years following the introduction of the legal limit, mortality attributable to cardiovascular disease decreased on average by about 14.2 deaths per 100,000 people per year relative to a synthetic control group, meaning that the Danish limit on industrial trans fats saves around 700 people a year in Denmark. 46 Further evidence of the effectiveness of legal measures is available from outside the EU: in Argentina, near elimination of industrially produced trans fats from food is estimated to be associated with an annual 1,3 to 6,3 % reduction in coronary heart disease events 47 . In New York, people living in counties in New York State with restrictions on industrial trans fats in food had a 7,8 % greater decrease in hospital admissions for heart attacks between 2007 and 2013 than people in counties without restrictions 48 .

How widespread are trans fats in the EU?

There is limited availability of comparable/EU-level data on the intakes of trans fats in the different population groups or on the presence of trans fats in foods in the different Member States. Evidence from a number of countries indicates that the intake of trans fats in the EU has decreased considerably over recent years 49 but that the situation is not homogeneous for all products consumed by all population groups in all EU Member States. Studies summarised by the JRC in its 2014 report concluded that 50 :

·Average daily trans fats intakes for the overall EU population are below 1 % of daily energy intake 51 . Yet some population groups have (or are at risk of having) higher intakes.

Examples of such sub-populations are low-income citizens (British male and female participants of the Low Income Diet and Nutrition Survey 52 where all age groups had intake levels above 1 % of energy intake, ranging from 1.2 to 1.4 % of energy intake) or male or female university students aged 18 to 30 years (data from Croatia, intake levels ranging from 1.1 to 1.2 % of energy intake 53 ). Also, according to surveys collected by the JRC, Swedish boys aged 8 and 11 years exceeded the WHO recommendation (1 % of energy intake), as well as Spanish males and females aged 18 to 30 years (1.05 % of energy intake) and French females over 55 years of age (1 % of energy intake) and between 3 to 10 years (1.02 % of energy intake). 54 As calculated by the JRC, up to 25 % of surveyed individuals aged 20-30 years have trans fats intakes above 1 % of daily energy intake. Annex 9 provides more details. Latest information collected during the OPC confirm this assessment. 55

·Most of the analysed food products contain trans fats at amounts below 2 % of the total fat content of the food and 77 % of these contain trans fats at amounts below 0.5 % of the total fat content of the food. However, there are still products in the European food market with high levels of industrial trans fats (e.g. biscuits or popcorn with industrial trans fats values in the order of 40-50 % of the total fat content of the food). While most of the analysed products are pre-packed products, there are also several reported cases of non pre-packed foods with trans fats levels above 2% of the total fat content in food. Examples of products found to contain trans fats in considerable amounts in Member States, generally of industrial origin, are frying fat also for industrial use, stick margarines, margarine used to produce pastry products, bakery products, biscuits, wafers, confectionary products including those with cocoa coatings such as covered puffed rice, soups and sauces. 56 Further recent studies about trans fats content in food in the EU were published after the finalisation of the JRC36 work:

oA study 57 focused on the market for pastries, confectionery, and potato products in Poland in the period 2009-2010 and reported a great diversity of trans fats content (0.1 % to 24.8 % of total fat content). Wafers were characterized by the highest average content of trans fats in the group of pastries (1.94 % of total fat content);

oA research in Germany 58 in 2017 quoting data from the Federal Office for Consumer Protection and Food Safety noted that in the period 2014 to 2017 the mean trans fats content in certain sampled fried bakery products was higher than 10 % of total fat content, sometimes even more than 30 %;

oTests carried out by the Czech consumer association 59   60 found that more than half of the tested margarines, 60% of wafers and 20 % of chocolate waffles tested were above the 2 % limit.

·Quantitative comprehensive data of industrial trans fats use for particular food sectors, or particular regions or sorted by company size in the EU is not available. However, available data 61 has shown significant presence of trans fats in different food categories, such as convenience products, cereal products, confectionary, crisps, savoury, biscuits, fast food products, fats and oils, without however a distinction between prepacked and non-prepacked, locally produced produce or not. Given that larger companies were more likely to participate in reformulation campaigns than SMEs, the residual share of products still high in trans fats is considered to be higher among SMEs.

Consultation with Member States 62 confirmed the findings in the JRC report 63 . In some Member States high intake levels prompted activities to reduce intake levels of trans fats, contributing to enhanced reformulation activities and reduced levels.

A study 64 noted that, in different Member States, industrial trans fats levels in some foods were still above 2 % of their total fat content and that, in some EU countries, industrial trans fats levels in pre-packed biscuits, cakes and wafers have not dropped meaningfully since the mid-2000s. The authors of this study continued analysing the evolution of the market in six countries in South East Europe covered by the previous study (including two EU Member States) and noted that availability of popular foods with high amounts of industrial trans fats increased from a high level in 2012 to an even higher level in 2014. 65 Another study 66 specifically focused on the Portuguese market showed that, in 2013, total trans fats content in different foods ranged from 0.06 % to 30.2 % of the total fat content of the food (average 1.9 %), with the highest average values in the 'biscuits, wafers and cookies' group (3.4 % of the total fat content of the food). 50 samples out of 268 (19 %) contained trans fats at amounts higher than 2 % of the total fat content of the food. Replies during the OPC revealed that 78 % and 77 %, respectively, of respondents agreed with the problem description above with regard to intake levels and content in foods, while 9 % and 8 disagreed, all but one disagreeing respondent stated that intake level and contents in food were actually higher that described above. 67 An unpublished study in Hungary 68 confirmed a steadily increasing trend of trans fats content in foods from 2009/2010 until 2012, which was reverted only in 2013 when the decision ona national legal limit of trans fats was notified to the Commission (further details are provided in section 5.1).

Sources of trans fats

Ruminant trans fats in dairy products or meat from cattle, sheep or goat 69 are present in relatively constant, low proportions of the fat part of those foods, at levels most commonly around 3 % (ranging from 2 to 9 %) of the total fat content. 70  

The primary dietary source of industrial trans fats is partly hydrogenated oils which contain various amounts of trans fats (up to more than 50 % of the total fat content). The partial hydrogenation process turns oils into semi-solid and solid fats. Industrial trans fats in the form of partly hydrogenated oils have been used or introduced into manufacturing processes of foods in order to achieve at comparative low prices a particular technological function, such as a solid fat texture at room temperature (e.g. in vegetable fat cocoa coatings). 71 Other than partly hydrogenated oils, industrial trans fats can also be the result of refining of unsaturated oils or of heating and frying of oils at too high temperatures (> 220°C). 72

Reduction of intake levels of industrial trans fats is technologically feasible. However, the fat composition of ruminant fats with regard to their trans fats content is not modifiable to a significant degree, therefore their intake cannot totally be avoided when consuming ruminant derived foods that are important in the EU diet of the EU population as they contribute essential nutrients. Also, ruminant trans fats sources generally contribute in a limited way to high total trans fats intake. 73 National public health policies generally address the problem of intake of ruminant trans fat intake already by initiatives to reduce saturated fat intake. 74 Although different actions were taken in several Member States and intakes have decreased over the past years, industrial trans fats are still present at levels of concern in certain foods and intakes are still excessive in certain cases. The evidence collected by ICF also suggests that gains obtained in recent years through voluntary industry initiatives may have reached their limits. The issue is of particular relevance in certain Member States and for particular population groups. This results in the following problems:

·Protection of consumers' health

Different levels of protection of consumers' health currently exist in the EU, depending on the presence of foods with high industrial trans fats content in the Member State's market (presence influenced by the existence or not of national regulatory or not-regulatory initiatives) and on consumers' consumption patterns. Consumption patterns are influenced by socio-economic factors (e.g. consumers with lower income are more likely to consume products with high industrial trans fats content that are generally sold at a lower price 75 so that this situation contributes to the perpetuation of health inequalities in the EU. 76 In light of the global trend to reduce intakes of trans fats and the WHO's recent REPLACE initiative ('trans fat free by 2023') recommending to ‘legislate or enact regulatory actions to eliminate industrially-produced trans fats’, a number of countries worldwide have acted and others are expected to act. Therefore, not taking any action at EU level could entail a reputational risk for the EU of not adequately addressing a serious health concern of global dimension.

·Functioning of the Internal Market and international trade

Only some Member States have taken action on industrial trans fats, which is problematic for the effective functioning of the Internal Market: food business operators active in countries where no limit on industrial trans fats exists have no related reformulation costs and are therefore at a competitive advantage vis-à-vis operators active in countries where legal limits exist or operators abide by self-regulatory commitments. The current lack of a consistent approach at EU level means that there is not a level playing field between operators that have reformulated their products in order to reduce or fully remove ingredients containing industrial trans fats, due to self-regulation, voluntary agreements with national governments or legal measures, and those that have not. Generally, manufacturers face higher cost if they produce different varieties of a food with different ingredients to meet diverging national legal limits, rather than benefitting from economies of scale regarding one recipe for a food product. Producers that have not taken any steps to reduce industrial trans fats may save costs as they do not invest in reformulation and through use of lower priced ingredients. This may provide a competitive advantage in the market.

This is particularly relevant for operators active in different Member States. At the same time, operators active in countries where no limit on industrial trans fats exists are negatively affected by the legal uncertainty over whether new initiatives to reduce industrial trans fats intakes will be adopted at national level and might have difficulties in planning R&D investments. The above described situation also hampers international trade: operators from third countries exporting their foods to the EU are subject to different conditions depending on where their foods are marketed. Similar considerations also apply to EU exporters to third countries. In countries without legal measures but with industry complying with voluntary agreements, industry may face unfair competition with producers in third countries. This issue in relation to external trade stems from import of products with high industrial trans fats contents into the EU. Eastern European countries may be at heightened risk for such imports due to their geographical position and the price sensitivity of consumers. Empirical evidence supports this description 77 . Of note, all national legal measures apply to all foods sold in the country, including both foods produced nationally and foods imported from other Member States or from third countries.

Types of stakeholders affected

1.EU consumers are directly exposed to trans in foods and would be affected by any EU initiative on the matter through reductions in their trans fats intakes. Consumers will benefit from reduced risk of contracting coronary artery disease when industrial trans fats intakes are reduced, but they may experience an increase in the price and potentially a change in the quality and attributes of certain food products. Consumers in Member States where foods containing high levels of industrial trans fats are still on the market and consumers with high trans fats intakes are particularly affected.

2.Healthcare providers and healthcare systems are affected by the impact the presence of industrial trans fats has on the incidence of coronary heart disease and associated costs of healthcare.

3.Food businesses, including SMEs, would be impacted by action to limit industrial trans fats in food and additional costs. More specifically:

·Manufacturers of pre-packed foods placed on the market in the EU or exported outside the EU operating chiefly in the following sectors: manufacture of margarine and similar edible fats, bread, fresh pastry goods and cakes, rusk and biscuits, preserved pastry goods and cakes, cocoa, chocolate and sugar confectionery, condiments and seasonings, preserving of potatoes;

·Mass caterers providing non pre-packed foods to consumers (e.g. fries) which (might) contain industrial trans fats, restaurants and businesses offering mobile food service (different sizes of business: multinational, national, SMEs);

·Manufacturers of ingredients placed on the market in the EU or exported outside the EU which contain industrial trans fats or are trans fats-free and can, in the latter case, be used as replacement of industrial trans fats-containing ingredients (e.g. frying oils) (mainly large operators);

·Retailers distributing foods which (might) contain industrial trans fats: they will be indirectly affected (different sizes of business).

·Third-country-based food business operators exporting into the EU would be affected by any EU initiative on the matter.

All food business operators have a role in determining the level of industrial trans fats in their products. Many of the large players have reduced industrial trans fats levels through reformulation. In this context, major producers and associations of the food industry have supported the implementation of a recommendation of a legal limit of industrial trans fats. 78   79

Manufacturers of oils and fats have a critical role to play as suppliers of ingredients that may contain industrial trans fats to food manufacturers, particularly to SMEs. A number of manufacturers have already acted on this issue, while others have not (in particular smaller and less organised businesses).

4.Public authorities of EU Member States are directly affected by the problem and by EU action as they will be responsible for implementing, publicising, administering and enforcing the new rules, incurring costs as a result.

5.Populations around the globe are affected, especially given concern about the potential impact on palm oil consumption and its effects on climate change and biodiversity.

2.2.What are the problem drivers?

The drivers of industrial trans fats intake are partly a matter of efficiency of industrial recipe and process and related lower costs, partly one of different national approaches and partly related to consumer behaviour.

Industrial recipe and process

High trans fats intake results from consumption of food products containing high levels of industrial trans fats. Industrial trans fats are used in the manufacturing process and in the recipe of certain foods for technological reasons. Especially, partly hydrogenated oils are solid at room temperature and relative stable, either to rancidity over storage time or when heated repeatedly as frying oils. 80

In addition, they may be chosen due to their competitive price. Alternative ingredients need to be found when replacing ingredients with high trans fats levels, and sometimes developed, so that the product presents similar characteristics of texture, taste, etc. after reformulation.

Reformulation can entail substitution or development of a new product, and sometimes changes to the manufacturing equipment to accommodate new ingredients. This poses various challenges to industry, and chiefly to smaller businesses, which may be dependent on suppliers to provide alternative ingredients.

In order to overcome cost-related barriers to replace ingredients with a high industrial trans fats content with alternatives, a stimulus to change by the market or regulators, may be needed, such as market pressure, legal obligations or other action by public authorities. The level of corporate social responsibility as well as responsiveness of food business operators vary depending on the Member State.

Different national approaches

National authorities have the power to limit industrial trans fats levels in foods through initiatives at national level if they find it necessary to protect public health. However, evidence 81 shows that national authorities have different approaches to industrial trans fats, with some acting and others not.

Among the Member States that have introduced legislation, a limit of 2 % of industrial trans fats of fat was the preferred choice. However, additionally, 4 Member States have complemented this with different limits established for lower fat products 82 . Due to those differences, all foods that contain between 3 and 20 % of fat with industrial trans fats levels between 2 and 4 % of fat would comply in 4 Member States but not comply in 3 Member States and all foods that contain less than 3 % of fat with industrial trans fats levels between 4 and 10 % of fat would comply in 2 Member States but not in 5 Member States. Those differences are in practice significant, as the majority of food products are below 20 % of fat and many are below 3 % of fat per 100 g of food. Tall existing Member States measures have in common the general 2 % limit for all foods with more than 20 % of fat content, while this food category represents generally a minor share of the total food offer. In Member States where voluntary measures have been taken, reductions were achieved, however, not always in line with legal limits mentioned above.

There is evidence collected by ICF about the effectiveness of both legal as well as voluntary measures in Europe. For example, in Denmark, a legal limit led to virtually eliminating industrial trans fats from the Danish food supply 83 . Data collected in Austria before and after the introduction of the legal measure indicate that from bakery products controlled over time, once before the introduction of the legal measure and twice afterwards, 18 out of 30 samples were not compliant while 3 years after the measure came into force 1 out of 68 samples was not compliant and two years later all samples were compliant 84 . Data collected in Hungary before and after the introduction of the legal limit point to a reduction of industrial trans fats intakes per person foods in the order of 40 % to 75 % 85 .

While it could be assumed that more Member States would take action in the absence of EU intervention, there are no precise indications for all Member States, taking into account that incentives for food business operators to act can vary significantly and national authorities have different approaches to industrial trans fats. If parallel action is not undertaken at national level in all EU Member States, operators would remain subject to different conditions for the manufacturing and placing on the market of foods that could contain industrial trans fats and obstacles to the functioning of the Internal Market would persist. At the same time, products with high industrial trans fats levels would remain on the market in some parts of the EU and intakes of trans fats would remain excessive for certain consumer groups. This would negatively affect the protection of consumers' health and would contribute to the perpetuation of health inequalities in the EU.

Even if action was undertaken at national level in all EU Member States, it is very likely that differences would exist in the timing of the interventions (i.e. not all national actions would be launched at the same time) and in their content (i.e. it is possible that different measures would set different legal limits or cover different products). This explains the clear added value of an EU-based, EU-wide action: the possibility to ensure a level playing field in the Internal Market and the same high level of protection of consumers' health by the means of an initiative that would apply simultaneously in the entire EU and would minimise the risk of national regulatory interventions (further) fragmenting the Internal Market.

Consumer behaviour

Low consumer awareness of the risks associated with the consumption of trans fats may also contribute to industrial trans fats intake. The evidence in the EU points to low levels of consumer information and consumer awareness on trans fats 86 , including which ingredient that is declared on the label or which non prepacked foods may contain trans fats. Many foods are potential sources that are difficult to avoid totally as this would lead to very restricted dietary choices.

Not all consumers can relate the information on the use of partly hydrogenated oils required by Regulation (EU) No 1169/2011 to the presence of industrial trans fats in foods and not all consumers can use that information to effectively compare different products taking into account their overall nutritional composition. 87

Finally, other considerations may influence consumer behaviour (e.g. cost, taste, habits) stronger than the intention to reduce trans fats intake.

2.3.How would the problem evolve 

Whether the decline in industrial trans fats levels in food product and industrial trans fats intake observed in the past years will continue at the same speed and achieve a near elimination of industrial trans fats in the EU is not certain. Contrary, there is some evidence of new products that contain high levels of industrial trans fats being introduced to the market in recent years. 88 Consumer health would continue to be at risk in a number of Member States, particularly in the Eastern and Southern part of the EU. The perspectives provided by stakeholders in the consultation conducted by ICF in the context of the study to support this IA suggested that the problem would remain in the absence of EU action but also that many Member States would act unilaterally in the absence of EU action. Based on previous experiences, national legal measures introduced for public health protection, would likely differ to a certain degree in scope and content and could contribute to fragmenting further the Single Market for food products.

3.Why should the EU act?    

3.1.Legal basis    

EU action could be taken within the framework of Article 114 TFEU, in order to ensure the functioning of the Internal Market, whilst ensuring a high level of protection for health and consumers. The adoption of a legal measure to set limits to trans fats presence in food can be considered through the implementation of existing legislation, more specifically, on the basis of Regulation (EC) No 1925/2006 on the addition of vitamins and minerals and of certain other substances to foods. That Regulation aims at providing a high level of consumer protection whilst ensuring the effective functioning of the internal market. The Regulation empowers the Commission to take measures restricting the addition of certain substances to foods or the use of such substances in the manufacture of foods in view of harmful effects on health which have been identified in relation to a particular substance. For the specific case of the presence of trans fats in food, harmful effects have been identified based on scientific advice provided by EFSA, as explained under point 1.

3.2.Subsidiarity: Necessity of EU action    

The existing situation on industrial trans fats negatively affects the protection of consumers' health and contributes to the perpetuation of health inequalities. Excessive intakes of industrial trans fats are associated with avoidable suffering and pose burden on public health care systems. 89

Industrial trans fats are still present at levels of concern in certain foods in many Member States and particularly in Member States where no national action has been undertaken so far (voluntary or regulatory) to reduce such levels. While average daily trans fats intakes for the overall EU population are below 1 % of daily energy intake, some population groups have (or are at risk of having) higher intakes, including low-income groups and younger population groups (18 to 30 years).36 As calculated by the JRC, up to 25 % of surveyed individuals aged 20-30 years have trans fats intakes above 1 % of daily energy intake.36 But even if population average intake levels are around or slightly below 1 % of daily energy intake, this level can be considered as excessive, taking into account the recommendation from the European Food Safety Authority that intakes should be as low as possible. Empirical evidence supports this view, as reducing intake levels of industrial trans fats from below 1 % or daily energy intake to minimal levels in Denmark, mortality attributable to cardiovascular disease decreased on average by about 14.2 deaths per 100,000 people per year relative to a synthetic control group. 90  

According to the ICF research, levels of industrial trans fats are not necessarily declining in the coming years. While data gathered for the ICF study confirm a trend towards industrial trans fats reduction in food products, it shows also that the limits of the current approach with no action taken at EU level have been reached. Levels of industrial trans fats appear to remain high in certain countries, predominantly Eastern and Southern Europe, and certain sub-groups of food businesses, particularly SMEs. Levels were still above 2 % of their total fat content and in some Eastern and South-Eastern EU countries, industrial trans fats levels in pre-packed biscuits, cakes and wafers have not dropped meaningfully since the mid-2000s 91 . The authors of this study continued analysing the evolution of the market in six countries in South-East Europe covered by the previous study (including two EU Member States) and noted that availability of popular foods with high amounts of industrial trans fats increased from a high level in 2012 to an even higher level in 2014 92 . Another study 93 specifically focused on the Portuguese market showed that, in 2013, total trans fats content in different foods ranged from 0.06 % to 30.2 % of the total fat content of the food (average 1.9 %), with the highest average values in the “biscuits, wafers and cookies” group (3.4 % of the total fat content of the food). 50 samples out of 268 (19 %) contained trans fats at amounts higher than 2 % of the total fat content of the food. Several consultations and triangulation of data have confirmed these findings.

Even under the assumption that a decline in industrial trans fats intake would take place over time without EU level action, evidence suggests that from a society benefit/cost point of view, taking EU level legal action is a highly efficient measure 94 . Therefore, opportunity cost for not acting at EU level are high, and they could be reduced the faster action is taken and measures are implemented, with resulting benefits for human health and cost to society.

3.3.Subsidiarity: Added value of EU action    

The existing situation on industrial trans fats hampers the effective functioning of the Internal Market.

Whilst action has been taken by some countries 95 , and others may be expected to act in the absence of an EU initiative 96 , rapid and universal action on industrial trans fats by Member States is currently not envisaged. Products with high industrial trans fats content would therefore remain on the EU market and industrial trans fats would continue to contribute to health impacts and health inequalities.

In addition, legal measures and voluntary initiatives taken by Member States so far differ, as different national views in relation to acceptable levels exist. 97 Additional measures at Member State level could lead to further differences in approach, adding complexity and cost for food business operators.

Furthermore, as a basis for the Internal Market in foods, the EU has a detailed and rather comprehensive system of general and specific food laws, ensuring that products can be freely traded, but also that consumers can be confident that products offered are safe. To address potential health concerns, food safety measures ensure a high level of health protection of consumers. Excessive industrial trans fats in foods pose risks from a food safety angle. In case a food constituent is linked to serious health concerns, confirmed by an opinion by EFSA, their presence should be either prohibited or limited, both for products produced in the EU and for imported products. Recent EFSA opinions 98   99 in relation to the presence of industrial trans fats in food ingredients recommended that the Commission considers revising the specifications for the ingredients, ‘including maximum limits for trans fatty acids’.

Added value at EU level thus derives from the possibility to ensure a level playing field in the Internal Market and the same high level of protection of consumers' health.. In this context, it is of note that 100 in the consultation that preceded the adoption of the Commission's report, several Member States proactively signalled their preference for an EU level initiative on industrial trans fats.

4.Objectives: What is to be achieved?    

4.1.General objectives    

To address the problems that industrial trans fats intake is an important risk factor for the development of coronary heart disease and contributes to the perpetuation of health inequalities within the EU, the identified general objectives of EU action on industrial trans fats to be achieved are:

·To ensure a high level of health protection for EU consumers;

·This will also contribute to reducing health inequalities, one the objectives of Europe 2020 101 ;

To address the problem of obstacles to the functioning of the Internal Market (unfair competition, legal uncertainty), the identified general objective is:

·To contribute to the effective functioning of the Internal Market for foods that could contain industrial trans fats.

4.2.Specific objectives    

The following specific objectives of EU action on industrial trans fats to be achieved are:

·To reduce intake of industrial trans fats in the entire EU for all population groups;

·To ensure that the same rules/conditions apply in the EU to the manufacturing and placing on the market of foods that could contain industrial trans fats, so as to ensure legal certainty of EU food business operators within and outside the EU 102  

Data collected during the Impact Assessment support the view, that trans fats are particularly a problem in Eastern and South-Eastern Europe, a region that generally also suffers from relatively high rated of heart disease and lower life expectancy than Western Europe. The results of a study 103 suggest that industrial trans fats levels in pre-packaged biscuits, cakes and wafers in some Eastern and South-Eastern European countries have not dropped meaningfully since the mid-2000s. This suggests that in certain parts of the EU little progress has been made, while in some Western EU countries reductions were achieved. The European consumer association BEUC highlighted in their position paper on trans fats in 2014 104 , that regional inequalities between Western versus Eastern EU countries persist, citing results from product testing, which showed consumers in Eastern EU countries are more exposed to industrial trans fats than their Western neighbours. A test on margarines and wafers carried out by the Czech consumer association 105   106 in 2013 and 2014 confirmed that reformulation efforts have not been equal in Eastern and Western EU countries. According to a published study 107 , the same product categories would contain minimal amounts of industrial trans fats, while in Eastern Europe, substantial contents of trans fats were found. Figure 1 summarises the problems, drivers and objectives associated with industrial trans fats in the EU.

Figure 1 Illustrative summary of the problems, drivers and objectives associated with industrial trans fats in the EU

 

5.What are the available policy options? 

5.1.What is the baseline from which options are assessed?    

In the baseline scenario, option 0, no initiative would be taken on trans fats at EU level. The qualitative and quantitative analysis 108 was informed by the baseline scenario of a study completed by the JRC and the qualitative evidence collected in the external study by ICF.

The JRC study highlighted that the assumed baseline of 10 years in their modelling exercise was chosen as a rather conservative approach to show that measures which are cost effective under this very conservative assumption would prove even more cost effective under any further, less conservative baseline scenario 109 .

The assessment methodology was designed to accommodate uncertainty about the future trend in industrial trans fats intake in the absence of EU action (the baseline scenario). The purpose was to reinforce the analysis by referring to three possible future trends (baselines), taking into account uncertainty rather than focusing on one scenario only.

It is suggested that industrial trans fats levels in food have been declining over time under the influence of various factors, while there is also some evidence that the decline has levelled off, according to the ICF study. In its recent public health economic evaluation32, the JRC extrapolated from available evidence and based its modelling on the assumption that industrial trans fats would be completely removed from the EU food supply chain in 10 years. While data gathered for the study by ICF confirm this trend, it shows also that most changes that could be triggered in the absence of EU policy action have already taken place, either as a result of voluntary initiatives or national legislation. Nevertheless, levels of industrial trans fats in foods appear to remain high in certain countries and certain sub-groups of food businesses, particularly SMEs.

A continuous downward trend in the years to come is not certain. 110 Industry in some Member States has not acted voluntarily on industrial trans fats, and the evidence from certain Member States collected by ICF suggests that a voluntary approach may not deliver any progress there. Data on the industrial trans fats content of foods manufactured and sold in some Member States 111 suggests that, in spite of reductions in certain categories of products, levels of industrial trans fats in other food products remain high. The evidence on voluntary industry initiatives collected by ICF strongly suggests that potential action by those sectors willing to act and sufficiently well organised at national and EU level to carry out coordinated reductions in industrial trans fats havs already been carried out. Other sectors and countries that have not acted voluntarily are highly unlikely to do so in the near future. Further evidence collected in six countries (including the EU Member States Croatia and Slovenia) has found that the number of packages of food products (considering the group of biscuits, cakes, wafers) that contained more than 2% of total fat as industrial trans fats had doubled between 2012 and 2014 112 , indicating that food industry operators had expanded their offer of products with high industrial trans fats content, contradicting the notion of a general downward trend. Further evidence for actual increases of industrial trans fats exposure, particularly in Eastern Europe, is provided in a recent, unpublished study in Hungary, the outcome of a collaborative agreement between the World Health Organization Regional Office for Europe which supported the process and technical product, and the Ministry of Human Capacities of Hungary 113 . Hungary introduced its national legal limit in February 2014 with a transition period of 1 year. In the years proceeding to the enforcement of the national legislation, a steady increase in the percentage of products above the legal limit could be observed: 2009/2010 16% of products surveyed, 2011 27 %, 2012 29 %, respectively.

Figure 2: Compliance with the Hungarian national legal limit by year (%)

Substantial improvements were only seen from the period where the national legal limit had been decided and notified to the EU, in 2013 with 11% of the sampled products above the legal limit, with following steady declines, 2014 7%, 2015 6 % and 2016 2%, showing the effectiveness of a legal limit to revert an increasing trend of products with high industrial trans fats levels on the market. This development is illustrated in Figure 2

Likewise, mean trans fats content in products was seen to steadily increase on the Hungarian market until a national legal limit was decided, as shown in Table 1.

Table 1: Mean trans fats content (g/100 g food) in the food samples by year in Hungary

Year

N

Mean

SD

Minimum

Maximum

2009/2010

396

0.55

1.46

0

15.36

2011

125

0.76

1.67

0

11.84

2012

210

0.70

1.41

0

10

2013

169

0.53

2.02

0

14.43

2014

306

0.26

0.42

0

3.46

2015

266

0.29

0.99

0

10.19

2016

114

0.20

0.41

0.004

3.53

Possible reasons for increased levels of industrial trans fats in foods are, for instance, availability of food ingredients with high industrial trans fats levels at low prices, a high price sensitivity of consumers, low responsiveness of food business operators to respond to calls for voluntary reformulation and a perceived low reputational risk for food business operators linked to the offer of products with high levels of industrial trans fats. For the Hungarian example described above, it was not possible to determine whether products with high industrial trans fats levels were imported as information was only available about the distributor and not about the manufacturer.

Of note, the national legal measures prohibit the sale of non-complying foods on the national territory, while non complying foods may still be legally produced for export.

A number of published evidence, including research articles, were available for citation to provide evidence, apart from data on trans fats levels collected by JRC, showing and confirming higher levels of industrial trans fats, particularly also in Eastern European countries 114   115   116   117   118 . Despite this fact, the validity of assuming a baseline scenario of no change has been confirmed by ICF. ICF conducted an online consultation to maximise their ability to validate the data collected during desk research and expert interviews and triangulate the findings from the impact assessment with a wide range of stakeholders. This enabled ascertaining the validity of key elements of the analysis. The first part of the consultation posed general questions on current and predicted industrial trans fats use under different policy options. Overall the results from the ICF consultation have confirmed the appropriateness of the assumptions and estimates, while they have helped to qualify the baseline scenario. According to the ICF research, levels of industrial trans fats are not necessarily declining in the coming years. While data gathered for the ICF study confirm a trend towards industrial trans fats reduction in food products, it shows also that most changes that could be triggered in the absence of EU policy have already taken place, either as a result of voluntary initiatives or national legislation.

This suggests that obstacles stand in the way of further changes and of further diffusion of initiatives, either private or public, to that part of the EU food industry that has not yet reduced industrial trans fats levels in its products. Whether these obstacles would be removed in the absence of EU activity is not clear from the evidence that has been gathered by ICF. A continuous downward trend in the years to come is therefore not certain.

This uncertainty in the baseline is mitigated by the analytical approach; three variants of the baseline scenario have been adopted to capture that uncertainty, about how trans fat intakes may develop in the future. The policy options are compared against each variant. This approach helps to ensure that the conclusions about the absolute and relative impacts of options are robust in the context of all foreseen reference scenarios, thereby accommodating the uncertainty about future evolution of the problem in the absence of further EU action (cf Figure 2):

·A continuous decrease leading to the complete elimination of industrial trans fats from the food chain over a period of 10 years (B1 – ’10 year elimination’);

·A continuous decrease leading to the complete elimination of industrial trans fats from the food chain over a period of 15 years (B2 – ’15 year elimination’);

·Industrial trans fats intake remains constant at current levels (B3 – ‘no change’).

The three variants of the baseline represent the spectrum of expected possible trajectories – industrial trans fats intake remaining constant at current levels, a linear decline in industrial trans fats intake to zero over 15 years and an accelerated linear decline to zero over 10 years.

From an impact appraisal perspective, the first variant (B1) is conservative: An option that is cost-effective under the first variant (B1) would be even more cost-effective under the other variants.

Figure 3 Dynamic baseline: illustrative representation of how benefits of industrial trans fats control arise compared to the variants of the baseline scenario 119 (source: ICF)

iTFA : industrial trans fats

5.2.Description of the policy options    

Overall, three options were considered, option 1 and 3 were subdivided into two sub options each to consider different instruments. Logic models and theories of change for each option are presented in Annex 11, Figure 4 describes potential dietary sources of trans fats and indicates where the different options affect those sources.



Figure 4 Overview of potential dietary sources of trans fats and where the different options affect the (% trans fats are given as % of fat content)

FBO: food business operator


Option 1 – Establishment of a limit for the industrial trans fats content in foods

In this option, the EU would establish a limit for the presence of industrial trans fats in foods, both pre-packed and non-pre-packed.

Different limits could be considered, one possibility would be to set the limit of industrial trans fats at 2% of the total fat content of the food, in line with the approach followed in seven Member States that have already taken legislative action on the matter. 120 This limit could be set through different instruments:

Option 1a: Voluntary agreement with the relevant food business operators to set a limit for industrial trans fats content in foods

In option 1a, a limit for industrial trans fats content in foods would be established by a voluntary agreement at European level between relevant food business operators. The agreement as a form of self-regulation would be under the auspices of the Commission, and involve EU-level representative organisations from the industry, themselves representing both national federations of companies and large companies operating across many countries of the EU.

Since some industry sectors are not organised and represented at EU level, this would not be fully inclusive. Voluntary agreements would primarily focus on foods sold to the consumer (and not include ingredients that are sold as inputs to final products).

The agreement is assumed to include an annual reporting requirement for participants. Industry associations would collect and report the information on behalf of their members. This information could be commercially sensitive, and business associations would need to operate as a “safe space” 121 , collecting and anonymizing the information from its members so that it may then be publicised. Such arrangements would build upon the examples of voluntary agreements to reduce industrial trans fats content in food which have been implemented in Germany and in the Netherlands.

It is assumed that the agreement would set a target of achieving levels of industrial trans fats in food products below 2% of fat within a period of 3 years. The evidence collected by ICF suggests that such a timespan would enable producers to factor reformulation into their regular cycle of product review and reformulation (whereas legislation might impose a shorter transition period for businesses).

Reporting obligations (and so the associated costs) would continue to apply even after the participating sectors had reduced industrial trans fats content to below the threshold. A review mechanism and ‘sunset clause’ by which reporting requirements lapsed a specified period after objectives had been met would mitigate ongoing costs incurred even after industrial trans fats had been reduced to levels below 2% of fat. There would be a credible incentive for Member States that legislation would be introduced in the absence of progress.

A part of the food business operators that participated in the consultations favour a voluntary approach with regard to a legal limit, as more flexibility to act would be given. Generally, neither consumers nor NGOs favour this approach as it does not guarantee a high level of health protection. Public authorities think this option is somewhat appropriate as it could deliver some results, while most Member States support a harmonised, legal European approach (option 1b) ensuring the Internal Market and fair competition between food business operators in all EU Member States.

Option 1b: Legally-binding measure to set a limit for industrial trans fats content in foods

In Option 1b, EU legislation would set a limit industrial trans fats content of 2% of the total fat content of final food products sold to the consumer, following the example of 2% limits to final food products in some Member States' legislation. 122   123 The 2% limit assuming it applies to all products consumed in a very conservative scenario means in practical terms an intake of between 0.6 and 0.7 % of energy intake from industrial trans fats for a large number of average consumers (between 33 and 60 %) in the EU. A 2 % limit applies to the content in the particular food or product and it would still enable minimal use of partly hydrogenated oils as raw ingredients containing industrial trans fats by the industry, e.g. for the manufacture of additives. Such additives could continue to be used, provided that the total industrial trans fats content of the final food sold to the consumer meets the 2% limit on fat basis.

In order to implement option 1b, it is assumed that the majority of food ingredients in the EU will comply with the legal limit, so that food manufacturers are sure to comply with the legal limit and that most food manufacturers that buy ingredients will ask for a industrial trans fats specification of not more than 2% of their supplier. In specific cases, ingredients with higher industrial trans fats levels could be used, as explained above. The enforcement of option 1b includes testing of final food products in the market for their industrial trans fats level. The JRC has proposed assessment methods for industrial trans fats and developed a standardised calculation method to estimate the industrial trans fats level in a food that contains industrial and ruminant trans fats.

Alternatively, a more differentiated approach could be chosen, with higher limits (above 2% of total fat) for products with low fat content, and 2% of total fat for food categories with high fat content. Such differentiated limits have been adopted in some Member States. 124 Consistently with the modelling study by the JRC, a transition period of 2 years is assumed.

A large part of the food business operators that contributed during the various consultations favour this option that is achievable and provides a level playing field and avoids any further fragmenting of the EU Internal Market. Also, most public authorities and Member States, as well as consumers, and NGOs favour this approach as it guarantees a high level of health protection, is in line with certain national legal measures already in force in the EU, as it is ensuring the Internal Market and fair competition between food business operators in all EU Member States.

Limits below 2 % of fat content were not considered in detail in this IA. During the normal refining steps (deodorisation) of oils that contain high levels of polyunsaturated fats industrial trans fats can be formed, even if the oil is not undergoing partial hydrogenation. Oils with a high content of polyunsaturated fats, providing essential nutrients, are generally recommended as a part of a healthy diet. Also, in food service establishments, during normal frying processes trans fats are formed to a certain degree. It would not be proportionate to ask small food business operators active in food service to frequently control the level of trans fats produced in the frying oils to ensure that a low threshold limit is not exceeded. The 2 % limit on fat basis has been found to be in line with the need to accommodate trans fats levels generated during normal oil and food processing. However, empirical evidence shows, that with this threshold, very low average intake levels of industrial trans fats, in the order of 0.009 %, were achieved with the legal limit of 2 % per 100 g fat content. Therefore, the 2 % limit was assumed to achieve a high level of health protection while being technologically feasible for food business operators.

Option 2 – Introduction of the obligation to indicate the trans fats content of foods in the nutrition declaration

Option 2 involves the introduction of an obligation to indicate the trans fats content as part of the (mandatory) nutrition declaration for pre-packed foods. This would provide incentives to the industry to reformulate and reduce trans fats from food products and enable consumers to make informed food choices. 125

The labelling obligation would be required for all foods that carry a nutrition declaration, with resulting costs even for foods free of trans fats, while non pre-packed foods e.g. in restaurants, are out of scope. Where applicable, the nutrition declaration would describe total trans fats content, both ruminant and industrial trans fats.

A two-year transition period, would allow a majority of businesses to process label changes into their normal cycle of label updating. 126

A large part of the food business operators that contributed during the various consultations do not favour this option due to the high administrative burden and linked costs. Generally, food business operators active in the vegetable oils sector have been more favourable in principle, given that this measure also covers ruminant trans fats, while food business operators providing ruminant fat sources are not favourable to this option as they are unable to reformulate the basic fat composition of ruminant fats and fear negative impacts on the overall diet of consumers as a potential consequence. Consumers often point to their desire for transparency in relation to the foods they eat and prefer to be provided with comprehensive information, so they supported this option. Public authorities generally 'do not favour' this measure or only 'favour it somewhat' according to the results of the OPC; also NGOs do not largely support this option, one of the reason here being that labelling covers only part of the food offer, pre-packed foods, and therefore only part of the trans fats problem.

Option 3 – Prohibition of the use of partly hydrogenated oils in foods

In this option, the EU would follow a similar approach as adopted in the US and would prohibit the use of partly hydrogenated oils in foods, as primary dietary source of industrial trans fats. This could be achieved through a voluntary agreement with the relevant food business operators (sub-option 3a), or a legally-binding measure (sub-option 3b).

Option 3a – Voluntary measure to eliminate the use of partly hydrogenated oils

In Option 3a, partly hydrogenated oils would be removed from foods through a voluntary agreement negotiated and managed at European level. Food business operators would commit to the ban individually or through their representative associations.

The arrangements for the voluntary agreement would be similar to that for option 1a. There is currently no definition of partly hydrogenated oils in EU law or in the Codex Alimentarius. For the implementation of Option 3a, a definition of partly hydrogenated oils would need to be established at EU level, linked to a measurable indicator, which could then be relied on for monitoring purposes. The US Food & Drug Administration 127   defined partly hydrogenated oils in terms of their 'Iodine Value', which is measurable.

Consumers and public authorities consider this option as somewhat appropriate, while industry and NGOs generally are not supportive about what they see as less effective voluntary action.

Option 3b – Legal measure to prohibit the use of partly hydrogenated oils

This option would mirror action taken in the USA. In June 2015 the US Food and Drug Administration concluded that partly hydrogenated oils are not “generally recognized as safe” for use in human food, and introduced a prohibition on their use, with a compliance period of three years. This allows food companies to either reformulate products without partly hydrogenated oils and/or petition the FDA to permit specific uses of partly hydrogenated oils. A similar measure has been introduced in Canada. 128

This option would introduce via EU law a prohibition on the use of partly hydrogenated oils as food ingredients. Provision could be made for limited derogations applicable to certain categories of products and for technical uses of partly hydrogenated oils in limited quantities. Partly hydrogenated oils are the primary dietary source of industrial trans fats in the diet. Although all refined edible oils and oils heated up under high temperatures during cooking processes contain some industrial trans fats as an unintentional by-product of their manufacturing- or the cooking process, industrial trans fats are an integral component of partly hydrogenated oils and are purposely produced in these oils to affect the properties of the oil and the characteristics of the food to which they are added.

As for Option 3a, the matter of the definition and a suitable test for enforcement purposes would need to be agreed. Neither at EU level, nor at international level (Codex Alimentarius) a definition of ‘partly hydrogenated oil’ exists so far. The definition of 'partly hydrogenated oil’ would need to be decided, and a suitable test would need to be agreed for monitoring and enforcement purposes. In the US, the definition of partial hydrogenation is linked to the extent to which a fat or oil reacts with iodine, referred to as the “Iodine Value (also referred to as IV)”. In this context, partially hydrogenated oils and fats are defined as those vegetable oils and fats with an Iodine Value (IV) above 4 129 . The iodine value does not measure directly the level of trans fats and hence does not always imply a reliable trans fats result and can also vary depending on other technical parameters applied during the hydrogenation process, irrespective of the trans fats content. The Iodine Value can also vary depending on the refining process used or depending on the presence of other substances in some vegetable oils and fats (called “unsaponified components”). However, when comparing option 3b to option 1b it is noted, that according to the definition chosen in the US for partly hydrogenated oils, in many cases oils above levels of 2 % trans fats per fat basis would be covered.

It is expected that difficulties may arise for enforcement of option 3b and the linked Iodine Value measurement based definition in final food products, where in most relevant cases, vegetable oils/fats are only one ingredient. The US approach is based on the ban of an ingredient, which means they must not be brought into circulation, which may be controlled. End product controls using the Iodine Value as an analytical measure are not applicable to finished, multicomponent products.

For cases where suspicion about compliance with the legal ban of using partly hydrogenated oils is raised, a document check or a check of the ingredients used for manufacture of a product or checks at the manufacturing plant for the oils used is necessary. This is thought to be particularly demanding for imported products, but also for control authorities in a Member State controlling compliance of products manufactured in another Member State.

Option 3b completely bans any use of partly hydrogenated oils. It means that a production process is banned, where industrial trans fats are produced in high amounts. The definition of partly hydrogenated oils applied in the US equals roughly oils that contain industrial trans fats levels of 2% on fat bases. Most oils that contain approximately more than 2 % trans fats would be considered by the definition applied in the US as being partly hydrogenated oils and would therefore not be allowed any more in the food chain. This is contrary to option 1b, where residual use of industrial trans fats for the manufacture of ingredients for food business operators would be permitted, as long as the legal limit of maximum 2 % of industrial trans fats per 100 g of fats in the food product sold to the final consumer is complied with.

A large part of the food business operators and NGOs that contributed during the various consultations does not favour this option that would ban a production technology rather than limiting the problematic substance itself, industrial trans fats. Furthermore, in the EU such a measure has no precedent. Public authorities perceived this option to be somewhat appropriate, while consumers are very supportive of option 3b as it ensures a high level of health protection.

Combinations of options

In addition to the above options, the following combinations of some of the options were considered:

·Combining mandatory labelling with legislation (2 + 1b or 2 + 3b)

·Combining mandatory labelling with voluntary agreements (2 + 1a or 2 + 3a)

5.3.Options discarded at an early stage

Fiscal measures, for instance introducing taxes, are proposed as effective measures for addressing nutrients of public health concern that are over consumed in a population. Examples are sugar taxes addressing sugars levels in sweetened beverages. However, industrial trans fats are seen from a food safety perspective, where fiscal measures are less appropriate. Furthermore, the Commission report of 2015 identified already the introduction of a legal limit as the most effective measure and announced the present IA to assess further its impact.

Sub-options of Option 1b with specific requirements for low fats have not been considered. Four of the seven Member States with national legal limits apply different limits for lower fat products. In view of an EU level legal limit, a legal limit of 2 % on fat basis is in line with EFSA and WHO recommendation, seems achievable in practice and is generally accepted by both consumer organisations as well as health NGOs on the one hand, and industry on the other hand. Granting additionally higher levels for low fat products, that are forming the major part of the diet in terms of quantity, could potentially lead to intake levels above 1 % of energy intake. For example, 100 g of a food with a fat content of 3 % and a maximum level of 10 % industrial tans fats of the fat content, would lead to products with 0.3g of industrial tans fats per 100 g of the final food product. For a person consuming a 2000 kcal diet per day, the standard used in EU food law and Codex Alimentarius guidelines, the WHO recommendation of less than 1 % of energy intake corresponds to less than 2.2 g TFA per day. Consuming more than 730 g of foods that are at this threshold would lead to industrial tans fats intakes exceeding the WHO recommendation. Generally, adults consume more than 730 g of food per day. The sub-options were not in detail discussed in the IA report. However, during discussions and consultations of a draft measure well justified proposals could be considered.

6.What are the impacts of the policy options?    

Annex 12 explains how options were screened against possible relevant impacts and how relevant impacts were identified. The main impacts of the policy options described in section 5 which were identified during the screening phase and therefore analysed in detail are: social impacts (health benefits, quantified in terms of health care costs - direct and indirect - and disability adjusted life years; effects on health inequalities), economic impacts (direct costs for businesses and public authorities which consist of administrative burdens for business, compliance costs for business, including the role of innovation and technological development and administrative burdens for public authorities; consumer impacts – prices, choice and product quality; Single Market impacts; effects on international trade; impacts on SMEs) and environmental impacts, particularly in relation to deforestation and implications for climate change and biodiversity. The potential indirect effects of the above on competitiveness, growth and social cohesion were also considered in the analysis.

6.1.Social impacts

The impacts of the options on human health are quantified in terms of direct and indirect health care costs and disability adjusted life years.

These impacts are influenced by the level of industrial trans fats intake currently observed in the population, which varies as a result of the different policy options. Furthermore, dietary habits of certain population subgroups, consumption levels of ruminant trans fats and the type of fat used to replace of industrial trans fats in reformulated products will also contribute to potential health impacts. In this analysis all factors are assumed constant. 130

Impacts on health

The health impact assessment used a number of assumptions that, together with the underlying evidence for those assumptions, are described in detail in Annex 13.

Food policies have the potential to reduce non-communicable disease mortality and morbidity, with associated cost savings quantified in Table 1 and associated health gains expressed in disability adjusted life years averted, quantified in Table 3 for the different policy options assuming three variants of the baseline scenario.

Impact on health care costs (direct and indirect)

Both direct and indirect health-related cost estimates are expressed in 2016 prices (in €). The model of the contractor ICF considers two types of costs, both were based on the European Cardiovascular Disease Statistics 2012 131 :

·Direct healthcare costs: costs related to the use of health resources (i.e., primary care costs, outpatient costs, emergency costs, and medication used during the hospitalization).

·Indirect costs of ill health: costs related to the disease, namely loss of productivity and informal care.

In the case of no EU action (Option 0) all health-related costs for the EU over the course of a lifetime (85 y) have a present value 132 of €10,764,979 million under the 10 year elimination variant (B1). Under the 15 year elimination variant (B2) and ‘no change’ variant (B3) the present value of total health-related costs would be €33,753 million higher and €245,009 million higher respectively.

Table 2 shows the cost savings resulting from each policy option as compared to the baseline scenario variants. The figures are calculated by subtracting the costs associated with the disease burden expected under the given policy with that of the relevant baseline variant.

Options 1b and 3b deliver the highest health-related cost savings; the implementation of legal measures (1b or 3b) would lead to savings with a present value of €58,611 million under variant B1 and €94,008 million under variant B2. In variant B3 disease-related costs savings are much greater than under the other two variants. In B3 there is no reduction of industrial trans fats intake without an action at EU level.

Table 2 Cost savings associated with lower disease burden for each policy option compared to the baseline, under each of the baseline scenario variants (M EUR)

Policy option

Savings from lower disease burden

B1 – 10 year elimination

B2 - 15 year elimination

B3 - No change

Option 1a

6,197

11,078

42,798

Option 1b

58,611

94,008

304,366

Option 2

10,329

15,353

141,484

Option 3a

6,197

11,078

42,798

Option 3b

58,611

94,008

304,366

Note: Figures represent the reduction of health-related costs over 85 years, in present value terms, in million Euro

A sensitivity analysis 133 has been conducted to show the impacts of alternative specifications of the starting point – i.e. the initial population industrial trans fats intake when the model starts (point 0). This shows that the results are robust, all options deliver cost savings in all cases, and options 1b and 3b provide the largest benefits.

Impact on disability-adjusted life years

The disability-adjusted life years measure overall disease burden as the number of years lost due to ill health, disability or early death. Resulting disability-adjusted life years are then calculated on the basis of the modelled number of coronary artery disease events and deaths.

In the case of no EU action (option 0) the disability adjusted life years for the entire EU population amount to 1,076 million over the course of a lifetime (85 years) under the best case scenario. Under variants B2 and B3 the total EU coronary artery disease burden in disability adjusted life years would be 1,079 million and 1,142 million respectively.

Table 3 illustrates the number of disability adjusted life years avoided thanks to the implementation each option as compared to the baseline scenario variants. They are calculated by subtracting the estimated disability adjusted life years in the baseline from the disability adjusted life years in the given policy.

Options 1b and 3b lead to the highest reduction in morbidity and mortality (as measured in terms of disability adjusted life years). The implementation of legal measures (1b or 3b) would reduce the disease burden by 4 million disability adjusted life years for the EU population under variant B1 and by 6 million disability adjusted life years for the EU population under B2. In the B3 case the reduction in disease burden is much greater. Options 1b and 3b have the greatest positive impact.

Table 3 Health gains in disability adjusted life years averted (EU28, Millions) for each policy option compared to the baseline, under each of the baseline scenario variants

Policy option

Health benefits in disability adjusted life years averted

B1 – 10 year elimination

B2 - 15 year elimination

B3 - No change

Option 1a

0.4

0.7

10

Option 1b

4

6

66

Option 2

0.7

1

34

Option 3a

0.4

0.7

10

Option 3b

4

6

66

A sensitivity analysis 134 shows that results are robust, all options reduce the disease burden as compared to the baseline.

Options 1b and 3b have identical expected health benefits. The underlying assumptions explain this similarity. With regard to option 1b, evidence from Denmark suggests that the introduction of legislation limiting the industrial trans fats content of foods was very effective in reducing the population intake. Since the introduction of the measure in 2002, the average intake of industrial trans fats decreased in all age groups of the Danish population. The most recent data suggest that in 2014 the average industrial trans fats intake in Denmark was 0.009 % of the energy intake. Based on this evidence, the health model assumes that for options 1b the industrial trans fats intake decreases to 0.009 % of energy intake after two years (assumption of 2 year implementation period) and then evolves as assumed in each of the three baseline scenarios. With regard to option 3b, introduction of a ban on the use of partly hydrogenated oils as a food ingredient through EU legislation, with a transition period of 2 years, the model assumes that industrial trans fats intake will vary as in option 1b, for instance, that the removal of partly hydrogenated oils from the food supply will successfully eliminate the presence of food with high industrial trans fats content from the market and lead to trans fats intake decreases to 0.009 % of energy intake. Residual small industrial trans fats intake from deodorised oils and trans fats generated during the heating of oils during cooking will remain.

Replacement of industrial trans fats with other ingredients as fat sources could potentially have unintended consequences for health. There is a range of approaches to reformulate foods and reduce industrial trans fats content for example replacing partly hydrogenated oils with alternative oils and fats and/or mixing of various non-hydrogenated oils. The ‘toolkit’ of oils and fats is vast and includes for example food technological approaches to ‘design’ fats of desired composition and properties, in particular by applying fat interesterification and fractionation processes Some stakeholders highlighted during the OPC the need to ascertain that the full health profile of the reformulated product has to be considered; for example there are concerns that reformulation may lead to increased saturated fat content. However, several studies have shown that for a number of food products, industrial trans fats have not simply been replaced by saturated fats, but the reformulated products have increased the content of cis-unsaturated fats, thus leading to an overall healthier profile of the product. Even if industrial trans fats were replaced completely with saturated fat, a net health benefit would result.

The recently launched REPLACE package of WHO 135 asks for encouragement of manufacturers to replace industrial trans fats with the most healthy available alternative fat. Many Member States already work on voluntary reformulation campaigns with industry to replace saturated fat intake. The EU is supporting such efforts, both via research projects or by support to exchange best practice models of reformulation.

One of the potential replacement fats for partly hydrogenated oils is palm oil and potential health implications of such a replacement need to be considered. Palm oil contains various fatty acids that could be considered in relation to their health profile. Around 49 % stem from saturated fat, 37 % from monounsaturated fat and 9 % from polyunsaturated fat. Saturated fat intakes are increasing the risk for developing heart disease and their intake should be limited. However, even if industrial trans fats are completely replaced by saturated fat, a net health gain is achieved. Replacing trans fats with either mono- or polyunsaturated fats yield higher health gains. Palm oil is particularly rich in palmitic acid, approximately 44 % of the fat. This may be seen as problematic as palmitic acid has been reported to be linked to bigger effects on increasing the undesirable LDL blood cholesterol levels and therefore with higher risks in relation to heart disease than other saturates fatty acids. EFSA has stated with regards to individual saturated fatty acids, that the 4 major saturated fatty acids (lauric, myristic, palmitic, stearic acid) may have different effects; however, that data is not sufficient for setting intake recommendations for individual saturated fats.

Impacts on health inequalities

Inequalities in health remain an important issue in the EU and across the globe. While the model of the JRC does not produce quantitative estimates of the potential effects of options on health inequalities, evidence collected by ICF from the implementation of trans fats policies and other dietary policies across the world suggest that the legal limit would be the most effective in reducing health inequalities, followed by the voluntary reformulation. The labelling policy is likely to have a minimal effect upon reducing health inequalities, and could in some populations actually worsen health inequalities.

Consumers with lower income are more likely to consume products with high industrial trans fats content, products that are generally sold at a lower price. As such the current situation can contribute to health inequalities. Another population group at risk off high industrial trans fats intakes are younger population groups. Examples were young males in Germany and Austria, identified as population groups at risk if high industrial trans fats intakes as they consume a high proportion of processed foods and fried fast foods that was found to contain more likely to contain high industrial trans fats levels. For instance, in Austria, young apprentices were identified as a group at-risk population to exceed recommended intake levels of industrial trans fats due to their high consumption of fast foods. Before Austria introduced their national legal measure, in a study covering 2989 young apprentices 136 , 75 % were consuming levels below the national recommended level (1 % of energy intake), 25 % were above this intake level. In Germany, a report by the Federal Institute for Risk Assessment stated in 2013 137 that young adults were found to consume approximately 2,5 times the amounts of industrial trans fats as compared to older adults. While most consumers achieve trans fats intakes below 1 % of energy intake, the average intake is 0,66 % of energy intake. However, even with this low average level, 10 % of the population is above the recommended level of % of the energy intake. Particularly voluntary reductions of ready meals, here deep frozen pizzas, have contributed to reducing high intakes of an identified at-risk population of young adult males.

Detailed considerations and expected impacts for all policy options are provided in Annex 15.

6.2.Economic impacts

Each of the policy options considered has the potential to have a number of economic impacts, most importantly benefits and costs: administrative costs are incurred by businesses in understanding the rules, determining responses and providing information, and by the public authorities in implementing and enforcing the rules, monitoring and reporting. Compliance costs are incurred by businesses in meeting the legal obligations or voluntary commitments. These may include the costs of reformulating products, purchasing alternative ingredients, and product labelling. Further economic impacts were considered as well.

Economic impacts have been assessed by ICF with a cost model developed in MS Excel in parallel to the JRC model. The analysis provides a quantitative assessment of administrative and compliance costs for business, and administrative costs for public authorities. Quantitative estimates of the costs borne by SMEs were also made

Additional evidence collected from the consultations, informed a more qualitative assessment of related impacts on consumers, the Internal Market, competitiveness and international trade. Evidence and data on price impacts, competitiveness, the Internal Market and international trade was not available to enable a quantitative analysis. Available data and empirical evidence, while valid in specific cases in a certain context informed the evaluation, however, it was not possible to extrapolate such data for a quantitative assessment with a sufficient degree of confidence in the robustness of the results.

In order to assess costs for food business operators, the market structure needs to be analysed. For all businesses in relevant food industry subsectors that are potentially affected by the measures, Annex 16 provides an detailed analysis on the number of businesses affected and how the different measures that create costs are concerned. Based on EUROSTAT data, policy option 1a affects according to the ICF estimates 117,918 businesses, option 1b 1,019,240 businesses, option 2260,397 businesses, option 3a 124,403 businesses and option 3b 1,081,514 businesses. With regard to the different sectors, around 85 % are in food service (such as restaurants or caterers) and 15 % in the food manufacturing sector. The food sector, in terms of number of businesses, is dominated by SMEs. In food manufacturing, approximately 99.1 % of businesses are SMEs, of food service approximately 99.9 %, respectively.

Impacts on direct costs for businesses and public authorities

Table 4 presents estimates of the total costs to business and the public authorities of implementing the five options, as compared to the baseline scenario. The detailed costs that are summarised in this table and the underlying assumptions and methods for establishing them are described in Annexes 16 to 18. The figures present the sum of the present value of costs over 10 years, using a discount rate of 4%. 138

Costs are assumed to be zero after 10 years for each option. Many are one-off costs such as reformulation or relabelling costs. It is assumed that monitoring and enforcement will cease to generate costs after 10 years (by which time industrial trans fats will have disappeared from the food chain). By that time, monitoring of foods for the presence of industrial trans fats would likely become part of the routine operations carried out by National Competent Authorities regarding food composition. The development of cost-effective alternative ingredients should be followed by a decrease in costs for the substitute ingredients over time

The present values are calculated by summing the different estimated costs incurred each year over the 10 year period, and calculating the present value of these using the 4% discount rate. These costs are then summed up over the 10 year period to give a total present value.

Table 4 Present value of total costs of implementing options over 10 years (M EUR)

Policy option

Business administrative costs

Business compliance costs

Public administrative costs

Total costs

Option 1a

3.2

43.5

3.2

49.8

Option 1b

17.8

251.5

27.7

297.0

Option 2

6.7

9,568.8

250.6

9,826.2

Option 3a

3.3

51.6

3.4

58.6

Option 3b

18.7

297.4

29.9

346.0

Option 2 is estimated to be linked by far to the largest costs, especially as a result of the costs of relabelling of food products, whether or not they currently contain or are likely to contain trans fats.

Options 1b and 3b are estimated to have significantly larger costs than 1a and 3a, because a greater level of business action is anticipated in response to legislation than voluntary initiatives.

The estimated costs represent a small proportion of the annual value of EU output of the business sectors affected (Table 5).



Table 5 Estimated costs as a proportion of the value of output of affected food business subsectors (%)

Policy option

Business administrative costs

Business compliance costs

Public administrative costs

Total costs

Business costs

Option 1a

0.0001%

0.0011%

0.0001%

0.0012%

0.0011%

Option 1b

0.0004%

0.0062%

0.0007%

0.0073%

0.0066%

Option 2*

0.0002%

0.2349%

0.0062%

0.2412%

0.2350%

Option 3a

0.0001%

0.0013%

0.0001%

0.0014%

0.0013%

Option 3b

0.0005%

0.0073%

0.0007%

0.0085%

0.0078%

Note: Figures are expressed as a % of output of the main sub-sectors affected by action for industrial trans fats. 139 *Costs of option 2 include costs for all pre-packaged food producers.

While the cost estimates are based on broad averages and assumptions, it is likely that the costs for the majority of food businesses will be minor, but that a small proportion of businesses will face greater challenges and costs. Examples of businesses that may face greater challenges and costs are those suppliers of oils, fats and margarines that have not yet reformulated their products, as well as a number of smaller bakeries across the EU that are currently users of partly hydrogenated oils.

Impacts on consumers

The main impacts on consumers (besides health-related impacts discussed in section 6.1.) are expected to be:

·Possible increases in the price of food products; and

·Possible changes in the attributes of food products, including their taste and texture.

Consumer prices

Increases in costs to food businesses could (partly) be absorbed within the food chain, (resulting in lower business profits), but would be expected to be reflected, at least partly, in increases in the price of food products to the consumer.

The expected impact of each option on consumer prices is summarised in Table 6, details about the underlying assumptions to establish the expected impact on consumer prices are provided in Annex 19. Only qualitative data are available as it was not possible to quantify the increase of consumer prices.

Potential price increases on items consumed primarily by low-income citizens could lead to less available budget for food purchase (fruit and vegetables) and therefore have the unintended impact of leading to less healthy diets. However, the price increases for most food items is assumed to be moderate. Furthermore, most substantial price increases are expected to occur in foods with cocoa, vegetable fat coatings. Those foods are generally recommended to be consumed in smaller quantities and price increases could also lead to smaller consumption quantities or to less frequent consumption. The total net impact on health is uncertain.

Table 6 Expected impact of each option on consumer prices

Policy option

Expected impact

Comments

Option 1a

Very small increase

Low cost option, unlikely to impact on food prices

Option 1b

Very small increase

Overall costs expected to be very low relative to value of output. Prices of some products may increase slightly, particularly those for which reformulation and cost of ingredients present challenges

Option 2*

Small increase

Estimates suggest this will be the highest cost option. Will impact on a wider range of packaged food businesses, potentially having a small effect on price. However, food service prices will not be affected as they may potentially be under other options.

Option 3a

Very small increase

As for option 1a

Option 3b

Very small increase

As for option 1b

Product attributes

One of the challenges in reducing industrial trans fats is the difficulty of finding alternative ingredients and formulations that allow products to offer a similar experience to consumers in terms of their taste, texture, appearance and shelf-life. If these challenges cannot be adequately addressed, there is a danger that the satisfaction that consumers derive from affected food products will be adversely affected. Also, consumer choice could be affected when products would be taken from the market as reformulation is not possible.

Overall, evidence presented in the ICF study suggests that these issues do present challenges for some sectors of the food industry, but that these challenges are not insurmountable, also considering that products were produced before the wide introduction of trans fats in the middle of the 20th century. Some evidence collected by the external contractor ICF is provided in Annex 20. Options 1b and 3b – by mandating changes in product content – can be expected to have greatest potential impacts (Table 7). In a view of evidence where reformulation may prove difficult and result in the possible disappearance of some food items and/or a loss of product variety, tit would be premature to conclude that product choice available for the consumer may be lost. As an example, the introduction of an industrial trans fats legislative limit in Denmark resulted in a reduction of industrial trans fats shortly after (in one year) its introduction without any obvious side effects for the population. Also in Austria and Hungary, no reduction of product choice available for the consumer was observed. There remain some uncertainties as the proposed measures would cover the entire EU.

Table 7 Expected impact of each option on product attributes

Policy option

Expected impact

Comments

Option 1a

Negligible

Action will be voluntary – products facing technical challenges can be excluded

Option 1b

Small, negative

Some challenges in reformulating certain products to maintain same attributes. Changes will be mandatory, suggesting that some enforced changes may be required. However, no evidence of significant negative impacts from those countries that have taken action to date. Derogations to a 2% limit for products with low fat content may further contribute to limiting negative impact on product attributes

Option 2*

Negligible

As for option 1a

Option 3a

Negligible

As for option 1a

Option 3b

Small, negative

Some challenges in reformulating certain products to maintain same attributes. Changes will be mandatory, suggesting that some enforced changes may be required.

Internal Market impacts

Differences in product standards between Member States can distort the free movement of goods within the EU. National rules may impose higher costs on national operators, affecting competition in the market as a whole. They may also restrict access to domestic markets for producers in countries which do not adhere to the same standards.

In the absence of legal action at EU level, future national actions are likely, leading to further differences in standards across the EU. Further evidence with regard to Internal Market impacts is provided in Annex 21.

Significant differences between the options can be expected, with Options 1b and 3b having a significant harmonising effect. The voluntary options 1a and 3a would seek to raise standards across the EU, without affecting the legal framework. There is a risk that varying rates of progress and uptake of voluntary agreements could have a complicating effect and lead to further differences between countries and sub-sectors. Option 2, relating to labelling, would have no effect in harmonising product standards, but would aim to encourage consumers to make more informed choices. Options 3a and 3b, by focusing on eliminating partly hydrogenated oils rather than placing limits on industrial trans fats, would introduce differences compared to existing legislation in the mentioned seven Member States. This would potentially create confusion in the market and requiring some further action to harmonise standards at national level. Annex 21 provides a summary table and qualitative assessment of expected impact of each option on the Internal Market.

Competitiveness and trade impacts

A number of non-EU countries have introduced legal limits on industrial trans fats in food or banned the use of partly hydrogenated oils in food products (Canada, US). The majority of countries globally have yet to introduce legislation on industrial trans fats.

EU policy on industrial trans fats has the potential to impact on international trade in food products:

·Elimination of industrial trans fats from the EU food chain will help to position EU producers to sell to markets such as Canada and the US, as far as they are accessible, which have taken action to limit partly hydrogenated oils/ industrial trans fats;

·Limiting industrial trans fats use, by increasing costs for food businesses, could potentially hamper competitiveness in price sensitive export markets;

·Legal limits on industrial trans fats /partly hydrogenated oils applied to products sold in the EU would apply to foreign imports as well as domestic production, potentially reducing imports from countries that have not acted to reduce industrial trans fats;

·Voluntary measures could potentially increase costs for EU producers, while exposing them to competition from low cost, high foreign trans fats imports;

·Labelling measures would apply equally to imports and domestic products sold in the EU.

The net effect of these potential impacts is difficult to predict, and will vary between the different options.

Little evidence was found from the literature review of the ICF study to suggest that impacts on trade and competitiveness are likely to be significant, and in general the stakeholders interviewed by ICF did not express this as a concern. This is likely to be because:

·Extra-EU trade represents only a small proportion of the market for most of the industrial trans fats relevant food industry subsectors;

·Most companies active in international markets have already taken action to eliminate industrial trans fats from their products; and

·Any additional costs involved in eliminating industrial trans fats are a small proportion of industry output (as estimated above), such that the presence or absence of limits is unlikely to be a major factor influencing competitiveness.

Where consultees in the ICF study commented on trade issues, a general view was that action to eliminate industrial trans fats from food is taking place internationally, and that taking action on industrial trans fats will tend to enhance rather than reduce competitiveness. Pressure to reduce trans fats levels in foods and related legal measures is expected to increase worldwide in view of the plan to eliminate industrial trans fats from global food supply published by WHO on 14 May 2018. 140 Overall, the expected impact of all the options is small, further details are provided in Annex 22.

Impacts on SMEs

The EU’s food and drink industry is a highly diversified sector with many companies of different sizes. It includes more than 280,000 SMEs which generate almost 50% of the sector’s turnover and value added and provide two thirds its employments. 141 SMEs are particularly prevalent in particular subsectors – such as bakeries and food service – which face greater challenges in reducing industrial trans fats.

Little specific evidence was found in the ICF study through the literature review or stakeholder interviews or the OPC 142 regarding the particular impact on SMEs resulting from action to address the industrial trans fats issue. However, interviewees expressed a general view that SMEs may be impacted by the different policy options on the grounds that:

·SMEs are in general less likely than their larger counterparts to have taken action to eliminate industrial trans fats from their products; and

·SMEs generally have less staff time and fewer resources to devote to product development, and therefore may face greater challenges to reformulate their products

On the other hand, evidence collected by ICF also suggests that many SMEs will benefit from action by their suppliers to reformulate ingredients and this will provide simple routes to compliance with limits on industrial trans fats. For example, many small bakeries will simply use alternative fats and oils developed by larger firms that supply ingredients to the baked goods sector. Substitute frying oils have been developed for use by food service businesses. 143 Micro-businesses, which are prevalent in the food service sector, are likely to make use of these supply chain solutions and may, as a result, incur smaller costs than businesses from the food manufacturing sector. It should be noted, however, that the size of business is not necessarily correlated to the nature and size of the costs borne. Also, evidence from Canada was found by ICF that SMEs were able to follow reformulation activities of large multi-national companies. There was a tendency for SMEs to copy these reformulated products rather than investing in own research and development. As a result, the measures were not as costly to SMEs as may be assumed.

With regard to a considerable part of the SME food business operators in the EU, the hospitality industry, empirical evidence collected by ICF points to the fact that a legal limit on industrial trans fats has a rather limited impact or non-existent impact. The: industrial trans fats contained in meals prepared by hospitality businesses are only the result of the content of such trans fats in supplies bought from the processing industry. If the supplies are already below the limits, food prepared by hospitality businesses will always be below the limits.

Some further evidence on the potential impacts on SMEs is provided in Annex 23.

Overall, the evidence collected in the ICF study suggests that:

·SMEs will bear a significant proportion of the costs identified above, particularly because of their prevalence in the affected sub-sectors, and the tendency for SMEs to have been less active to date in reformulating their products;

·Many SMEs will be able to eliminate industrial trans fats by accepting alternative ingredients developed by their suppliers, and will therefore not face significant costs;

·Those SMEs forced to reformulate their products will face additional costs and may experience greater challenges than larger companies because of their limited resources for R&D. For many small businesses, reformulation may be relatively simple, and require a few hours’ work to test an alternative recipe. The greater impacts will be on those SMEs facing more complex and costlier reformulation.

·The impact of the measures is likely to be greater for SMEs operating in the food manufacturing sector rather than SMEs operating in the food service sector.

The alternative options will have different impacts on SMEs:

·The legal options (Options 1b and 3b) will require all SMEs currently with non-compliant products to take action, potentially imposing significant costs on some;

·The mandatory labelling Option (Option 2) will place similar obligations on SMEs and larger companies. SMEs should be familiar with labelling obligations so should not face particular technical barriers. However, some SMEs may face greater difficulties in absorbing the additional costs involved;

·SMEs which face challenges in reducing industrial trans fats may choose to opt out of a voluntary agreement (Options 1a and 3a). These options are therefore likely to have least impact on SMEs;

Table 8 provides a summary table and qualitative assessment of expected impact of each option on SMEs. A specific SME test is provided in section 7.8, informing about the average cost per SME for the different options. Transition periods will help to mitigate the above mentioned costs. Empirical evidence from a Hungarian SME active in the chocolate confectionary sector demonstrates that adaptation to legal limits (Option 1b) is possible, however, sufficient transition periods, in the specific case between 1.5 to 2 years, are crucial as longer transition periods mitigate cost burden of the necessary adaptations. 144   145 Furthermore, larger food business operators that have removed trans fats from their portfolio, as well as food business associations have committed to guide companies, particularly SMEs, that have not taken action through the process of removing trans fats from all foods in order to meet a legal limit21 22.

Table 8 Expected impact of each option on SMEs

Policy option

Expected impact

Comments

Option 1a

Small

SMEs facing significant costs may opt out of the voluntary agreement

Option 1b

Potentially significant, negative

All SMEs producing foods above legal limit will be forced to take action

SMEs may face relatively greater costs and challenges compared to larger firms

Many SMEs will adopt solutions developed by suppliers, limiting costs

Option 2*

Potentially significant, negative

SMEs will face similar costs to larger companies

Costs of this option are relatively large

Some SMEs may face difficulties in absorbing increased costs

Option 3a

Small

SMEs facing significant costs are likely to opt out of the voluntary agreement

Option 3b

Potentially significant, negative

All SMEs producing foods containing partly hydrogenated oils will be forced to take action

SMEs may face relatively greater costs and challenges compared to larger firms

Many SMEs will adopt solutions developed by suppliers, limiting costs

6.3.Environmental impacts

Measures to reduce the use of industrial trans fats have potential impacts on the environment, by altering the use of ingredients and production processes. The primary concern raised in studies to date, and mentioned by interviewees of the ICF study, relates to the substitution of palm oil, a trans fats free, semi-solid fat, for partly hydrogenated oils, and the potential of increased palm oil production to cause deforestation.

The extent of such impacts depends on:

·The degree to which palm oil – as opposed to other possible ingredients – is used as a substitute for partly hydrogenated oils, and hence the extent to which limits on industrial trans fats production result in increased demand for palm oil;

·The degree to which any increase in palm oil demand results in environmental damage, which depends on the sustainability or otherwise of the production systems;

·The relative environmental impacts of palm oil compared to the oils that are partly hydrogenated (typically soy) and alternatives.

Some qualitative evidence in relation to substitutes for partly hydrogenated oils and their environmental impacts collected by the external contractor is provided in Annex 24.

Possible impacts of alternative options

Overall, the situation is complex and the resulting environmental impacts are difficult to predict. It is clear that:

·Palm oil is an attractive substitute for partly hydrogenated oils, particularly in the baked goods sector, on account of its physical properties and cost-effectiveness;

·It is therefore likely that limits on industrial trans fats will lead to increases in use of palm oil in products currently using partly hydrogenated oils. Overall consumption of palm oil in the EU will not necessarily increase, as it is forecasted to decline in the food sector as a whole, although global demand is growing;

·Increased use of palm oil is of concern since it has contributed to deforestation, with adverse impacts on biodiversity and climate;

·The EU is a leading player in the development of markets for sustainable palm oil. There is currently an excess supply of sustainably certified palm oil and any increase at EU level resulting from limits on partly hydrogenated oils could be met from sustainable sources, if consumers were willing to pay a price premium;

·As a result, action on industrial trans fats need not necessarily have an adverse environmental impact. However, there are no guarantees that any palm oil used to replace partly hydrogenated oils would be sustainably sourced; adverse impacts on biodiversity and climate are therefore a risk;

·However, the use of other vegetable oils such as soy also contributes to deforestation, and it is likely that current use of partly hydrogenated oils in food in the EU already impacts adversely on biodiversity and climate. The net effect of any change towards palm oil is difficult to assess. One advantage of palm oil is that it produces a high yield of oil per hectare compared to alternatives;

·Any potential negative impacts on the environment can be mitigated by further action by the EU food industry to ensure that palm and other oils are sustainably sourced.

It is therefore unclear whether or not any net impact on the environment as a result of action to reduce industrial trans fats will be positive or negative. However, it is clear that the magnitude of any environmental impact will be greater for those options leading to greater change in industrial trans fats. On this basis, options 1b and 3b can be expected to lead to greater environmental changes than Options 1a, 2 and 3a. Annex 24 provides a summary table and qualitative assessment 146 of expected impact of each option on the environment.

6.4.Impacts of combined options

Any additional benefit of adding labelling requirements to a legal limit on industrial trans fats or a ban on partly hydrogenated oils is expected to be limited as population industrial trans fats intake will already be reduced to very low levels under Options 1b and 3b.

Combining a voluntary agreement with labelling may be expected to have a higher impact in reducing the population industrial trans fats intake and will lead to greater cost savings and disability-adjusted life years reduction than adopting only one of the two options. However, according to estimates by ICF, details are provided in Annex 25, these benefits are significantly less than those delivered by Options 1b and 3b.

Because all of the combinations of options include Option 2, which has high costs of relabelling, product testing and awareness raising, each combination of options also has high costs. Therefore, even though combining voluntary agreements with mandatory labelling is estimated to lead to additional benefits (while remaining at levels significantly below Options 1b and 3b), the costs are high compared to Options 1b and 3b, as a result of the high relabelling and promotional costs of Option 2. Details are provided in Annex 25.

7.How do the options compare?    

This section considers how the options compare in the expected performance against the stated general and specific objectives and how the options compare in effectiveness, efficiency, coherence and with reference to the proportionality principle.

Of note, with regard to the validity and reliability of modelling results, a number of uncertainties need to be highlighted in order to avoid a false impression of scientific accuracy. Overall, there are limitations of the ICF modelling exercise due to the assumptions needed, data scarcity linked to intakes and future projections, paucity of evidence related to other trans fats health effects, possibilities to model more complex dietary changes making strong simplification necessary. The main purpose of the model was to support with modelling the relative comparison of the viable policy options against a reference of no policy; this outcome of a legal limit performing better under this specific framing of a public health economic evaluation in terms of health benefits and cost-effectiveness has been shown to be robust. Nevertheless, the relative findings are based on past experience. There is inevitably uncertainty how the future trans fats intakes might develop under the alternative policy scenarios. Annex 4 provides additional explanations about uncertainties.

7.1.General objective 1: Ensuring a high level of health protection for EU and Specific objective 1: Reduce intake of industrial trans fats in the entire EU for all population groups

Direct health impacts

The direct health impacts for EU citizens are positive under all options relative to all variants of the baseline scenario. The benefits of prompt action are strongly amplified if, in the baseline scenario, industrial trans fats intake does not decline. If, without further EU intervention, industrial trans fats would be phased out 10 years through industry actions then adopting options 1b or 3b could save around 4 million disability-adjusted life years that would otherwise be lost to coronary artery disease. If, however, industrial trans fats levels were to otherwise persist at current levels then legislating to remove them would conserve 66 million disability-adjusted life years.

The legal options (option 1b, 3b) deliver larger benefits than the voluntary agreements (option 1a, 3a) and labelling option (option 2). There is also a much higher degree of confidence that the legislation will deliver positive results – there is significant uncertainty about whether food business operators that are still placing products high in industrial trans fats on the market will participate in voluntary agreements, and how far consumers will respond to a modification of the nutrient declaration that adds reference to products’ trans fats content. In that context, the figures for options 1a, 3a and 2 in the Table 56 and Figure 13 in Annex 26, 1. may be regarded as upper estimates of potential impact. 147

Health benefits are expected to follow close behind the action taken by food business operators to reduce industrial trans fats. Experience from countries that have acted suggests that signalling that action is going to be taken can result in benefits starting before the legislation comes into force as some producers take proactive action in advance of the deadline.

The health impacts of derogations providing for authorised use of industrial trans fats for technical applications in low fat products under option 1b or partly hydrogenated oils under option 3b are uncertain.

Direct and indirect economic impacts of changes in health status

All options deliver savings in direct and indirect economic costs of industrial trans fats-related disease. These comprise changes in:

·Healthcare expenditure: This is a benefit that accrues principally to healthcare service providers and hence governments (where healthcare is publicly funded) or health insurers. Some of the benefits would accrue indirectly to citizens, whether as taxpayers or purchasers of health insurance.

·The wider economic impact of the changes to health status and coronary artery disease incidence triggered by EU industrial trans fats policies, focusing specifically on changes in productivity and in changes in demand for informal care. Productivity changes will accrue initially to employers and then to the economy as a whole. Changes in demand for informal care will impact directly on carers and may have a wider impact on economic output (e.g. where someone is able to continue in work because the incapacity of a family member due to coronary artery disease is avoided).

The analysis, using the model of the JRC, has calculated the present value of benefits over an 85 year horizon. 148 In baseline variants B1 and B2 industrial trans fats would be phased out after 10 and 15 years respectively so industrial trans fats would not be causing new and additional health impacts after those dates. In variant B3 industrial trans fats intake continues to cause negative health impacts in the baseline scenario in perpetuity so the options that reduce intake avoid a long stream of health impacts. The monetary benefits under B3 are therefore substantially larger than under the other two variants (Annex 26, Table 57). 149  

The analysis shows that the uncertainty in the baseline is not grounds for inaction – the slower the phase-out of industrial trans fats in the baseline, the greater the health impacts of effective EU action increase. The model is constructed to work at EU level, with reference to the EU population and EU-level cost factors taken from third party sources.

The legal options (1b, 3b) deliver larger benefits (cost savings) than either the voluntary agreements (1a, 3a) or the labelling option (2). The assumptions in the model (whereby the residual industrial trans fats intake under a partly hydrogenated oils ban is the same as the intake under a 2% limit) mean that 1b and 3b are equivalent in the healthcare savings delivered and deliver much larger savings than the alternatives. If option 1b was applied to ingredients as well as final products it would have the effect of implementing a partly hydrogenated oils ban of the kind specified in option 3b. It seems likely that this would deliver additional health benefits, but the information required to estimate those effects are not available.

As with the human health benefits, there is a much higher level of confidence that the legal options will deliver the scale of benefits indicated – there are significant uncertainties attached to the estimate of benefits of the voluntary agreements and labelling, and the values indicated are likely to be upper limits. This assumes compliance by food business operators with the legislation, which should be complemented by effective communication, by monitoring and enforcement by regulators.

Combined options are also considered:

·Combining mandatory labelling with legislation is not expected to yield significant additional health benefits over and above those delivered by Option 1b or 3b. There are theoretical direct and induced effects arising from consumers having a preference for industrial trans fats content closer to zero than the 2% legislated threshold, however the labelling option may also lead to adverse effects and heightened social inequalities.

·Combining mandatory labelling with a voluntary agreement is expected to yield additional benefits in terms of further avoided health-related costs, through synergistic effects, estimated at EUR 19,248 million for the combined option as compared to EUR 11,078 million for Option 1a and 3a and EUR 15,353 million for Option 2.

The performance of options against the specific objective 1 mirrors that for General Objective 1 described above, as well as for General Objective 3 on health inequalities. The performance of each option is summarised in Table 58 presented in Annex 26.

7.2.General objective 2: Contribute to the effective functioning of the Internal Market for foods that could contain industrial trans fats and Specific objective 2: Ensure that the same rules/conditions apply in the EU to the manufacturing and placing on the market of foods that could contain industrial trans fats, so as to ensure legal certainty of EU food business operators within and outside the EU

The legal options (Options 1b and 3b) impose a uniform approach across all entities that place food on the market across the EU.

Option 2 would provide a consistent level of visibility for consumers of industrial trans fats content in products but not provide consistent protection against the health impacts of high industrial trans fats products for those not aware of the risks. As it does not set limits for industrial trans fats content, it would also not fully address legislatively-driven cost differentials between producers in national markets where limits on trans fats content apply and producers from other countries.

With full participation and if fully effective the voluntary agreements (option 1a, 3a) approximate to the effects of legislation in their consequences for the Internal Market, but the evidence collected by ICF suggests that participation will be at best partial.

Options 3a and 3b, which aim to eliminate partly hydrogenated oils rather than place limits on industrial trans fats, would introduce differences compared to existing legislation in the seven Member States, potentially creating some confusion in the market and requiring some further action to harmonise standards at national level.

There are also potential indirect effects of non-legislative action in so far as, in the absence of EU legislation, there are some indications that certain Member States may adopt national legislation that varies in specification from those already in place and adds to the emerging legal complexity in this aspect of the market. Table 9 summarises the options’ performance against this general objective.

Table 9 Appraisal of options’ performance under general objective 3: Contribute to the effective functioning of the Internal Market for foods that could contain industrial trans fats

Policy option

Expected impact

Comment

Option 1a

(+)/(-)

Small impact, unclear whether positive or negative. Existing differences in legal standards will remain. Voluntary standards will be extended towards the legal limits existing in seven countries. However, variable uptake could lead to varying rates of progress and compliance in different Member States.

Option 1b

++

Significant, positive impact. Harmonisation of standards ought to remove industrial trans fats regulation as a factor contributing to differential operating conditions for firms in the Internal Market and avoid the legal complexity arising from differences in Member State law on this issue.

Option 2*

0

No change. No effect on product compositional standards, though the uniform requirement for transparency on industrial trans fats content provides information to facilitate informed consumer choice. Consumers not protected from high industrial trans fats products. Firms producing in countries that have imposed industrial trans fats limits may continue to face additional ingredient costs as compared to equivalent producers in other Member States.

Option 3a

(+)/(-)

Small impact, unclear whether positive or negative. Existing differences in legal standards will remain. Voluntary standards will aim to extend efforts to reduce industrial trans fats across the EU. However, variable uptake could lead to varying rates of progress and compliance in different Member States. In addition, focusing voluntary action on eliminating partly hydrogenated oils, when legislation in five countries places limits on industrial trans fats, could cause confusion.

Option 3b

+(+)

Significant, positive of impact via harmonisation of standards. EU legislation would differ from that in five Member States (given focus on partly hydrogenated oils ban rather than industrial trans fats limit), potentially creating some confusion and requiring harmonisation of existing national rules.

Option 1a/3a + 2

(+)/(-)

Combining labelling with voluntary agreements is not expected to deliver Internal Market effects different to voluntary agreements.

Option 1b/3b + 2

++

No additional impact over and above the legal options is anticipated by adding a labelling requirement.

Note: scale of - - to + + indicates a range of strongly negative (- -) to strongly positive (+ +) impacts, with ‘0’ being neutral.

The results for the specific objective 2 mirror those for General Objective 3 described in the table above. The options vary in the number of food business operators directly affected. These differences are determined by the sectors engaged (e.g. non-packaged goods are excluded from Option 2) and the level of participation expected. An important qualifying comment is that most of those subject to legislation will not need to act to reformulate products because their products do either not or not anymore contain industrial trans fats. There is uncertainty about the number of firms that will engage in the voluntary agreements.

Option 1b provides full and immediate legal certainty. Option 3b provides general legal certainty but creates challenges for those Member States that have already legislated and adopted the 2% limit model rather than a partly hydrogenated oils ban. These countries would need to adjust their domestic legislation to fit the EU model.

The other options provide less certainty in that there is the potential for unilateral Member State legislative action in countries that want to go further than Options 2 or 1a/3a provide for. 150

7.3.General objective 3: Contribution to reducing health inequalities, one of the objectives of Europe 2020

The legal options (1b, 3b) could potentially remove all present industrial trans fats-related health inequalities, which is not the case for the alternative options. All food consumers would benefit irrespective of social-economic, demographic status or consumption patterns. The impact of the alternatives is constrained by the limits to engagement by food business operators that have not already acted, and limits to responsiveness of consumers to trans fats-related additions to the back-of-pack nutrient declaration.

The performance of each option is summarised in Table 39 in Annex 15.

7.4.Effectiveness

Effectiveness is measured by the extent to which options are expected to achieve the target objectives, the three general objectives.

The main findings relevant for assessing the effectiveness of each option in achieving these objectives are specified in Table 9.

In relation to the health impact, the used model considers only coronary artery disease. Other potential benefits of lowering trans fats intake, which have been referred to in the literature such as impacts on insulin sensitivity, obesity, diabetes, cancer, or early growth and development, are excluded because of inconsistent evidence 151 and lack of data. As such the impact assessment can be considered to be conservative with respect to achievable health benefits resulting from (fast) industrial trans fats removal from the food supply.

Table 10 Effectiveness of all options and combinations of options under variant 2 of the baseline scenario

Option 1a

Option1b

Option2

Option3a

Option3b

Options1a/3a + 2

Options1b/3b + 2

disability-adjusted life years saved

0.7m

6m

1m

0.7m

6m

1.3m

6m

Health inequalities reduction

(+)

++

(+)

(+)

++

+

++

Internal Market

(+)/(-)

++

0

(+)/(-)

+(+)

(+)/(-)

++

Note: scale of - - to + + indicates a range of strongly negative (- -) to strongly positive (+ +) impacts, with ‘0’ being neutral.

Options 1b and 3b would be the most effective, in that they would achieve the greatest improvement in terms of health protection, reduction of health inequalities and contribution to the functioning of the Internal Market.

Option 2 would also prove effective in improving the level of health protection for EU consumers; however the assessment does not suggest that it would be effective in addressing health inequalities nor the current imbalances and fragmentation of the Internal Market in this area.

Options 1a and 3a would be less effective than other options in achieving a high level of health protection for EU consumers, and would contribute less than Options 1b and 3b to reducing health inequalities. Since voluntary agreements would be heavily dependent on the level of organisation of the food industry, they are unlikely to achieve any significant results in terms of addressing the fragmentation of the Internal Market on the matter of industrial trans fats.

The combination of Options 1a and 3a with Option 2 offers potential to provide greater health benefits and reductions in inequalities than these options alone, but does not offer added benefits with respect to the Internal Market. Combining Option 2 with Options 1b and 3b does not enhance effectiveness compared to Options 1b or 3b alone.

7.5.Efficiency (balance of costs and benefits)

The analysis has provided quantitative estimates of the administrative and compliance costs for businesses and public authorities, as well as the social benefits in terms of reduced costs of healthcare. Other relevant costs and benefits, including those relating to health inequalities, the Internal Market, consumers, international trade and the environment, have been assessed qualitatively.

Because some effects have been assessed in qualitative terms only, a comprehensive cost-benefit analysis is not possible. However, it is possible to compare those costs and benefits which have been quantified in money terms. In doing so, it is helpful to consider the likely significance of those costs and benefits that have not been quantified. Furthermore, the degree of uncertainty surrounding the quantified estimates is important.

The cost analysis has attempted to estimate a wide range of administrative and compliance costs, albeit with some uncertainty and the application of a range of assumptions. There is uncertainty about the environmental impacts, which could be positive or negative. The costs of agreeing a shared definition of partly hydrogenated oils and defining a common test for detecting partly hydrogenated oils (under options 3a and 3b) are undetermined but expected to be small relative to the overall costs (and benefits) of the proposed options.

It could be argued that a greater proportion of the costs of the proposed options are likely to have been captured than the benefits since:

·The health benefits are valued only in terms of savings in healthcare expenditure, and gains in productivity. Other health benefits – particularly in relation to human welfare – have not been estimated;

·The estimated savings in healthcare costs relate only to the reduced incidence of coronary heart disease. Other adverse health effects linked to trans fats are excluded.

Monetisation of these ancillary health benefits would increase the overall scale of the benefits. The understatement of benefits is expected to be much larger than any understatement of costs.



Table 11 summarises the monetised estimates of costs and benefits of the different options. In all cases the value of estimated savings in health-related costs exceeds those of estimated administrative and compliance costs. Options 1b and 3b are estimated to deliver the largest net benefits and Option 2 the smallest net benefits.


Table 11 Comparison between the monetised costs (administrative and compliance costs) and benefits (health-related savings) for the 5 options under variant B2 of the baseline scenario (NPV, EUR)

Option 1a

Option 1b

Option 2

Option 3a

Option 3b

Administrative and compliance costs

50m

297m

9826m

59m

346m

Health-related savings

11,078m

94,008m

15,353m

11,078m

94,008m

Ratio of monetised benefits to costs

222

317

1.6

189

272

Based on this evidence, action to limit industrial trans fats in food sold direct to consumers appears to be a very efficient use of resources. Legislation to limit industrial trans fats offers the largest potential net gains, followed by legislation to ban partly hydrogenated oils. A legal limit on industrial trans fats content avoids the need to agree a partly hydrogenated oils definition and to establish the capacity across the EU to test oils for compliance.

The finding that legislation to limit industrial trans fats or ban partly hydrogenated oils are the most efficient of all options is supported by ex-ante analyses in the US and Canada, both of which found large benefit: cost ratios for legal limits on trans fats/ partly hydrogenated oils, details are summarised in Annex 28.

The same result emerges when looking at cost-effectiveness as measured by the cost of the average disability-adjusted life years saved, as shown in Table 12. Option 1b delivers disability-adjusted life years at the lowest cost under all variants of the baseline scenario. The cost-effectiveness of the policies by this measure improves significantly in the transition from variant B1 to B2 to B3 (as the costs are assumed to be fixed but the health benefits increase substantially in B3 as compared to B1). The legal options emerge as a highly cost-effective mechanism for ‘purchasing’ health improvements.

Option 2 imposes significant ‘deadweight costs’ on the food manufacturing sector – it imposes additional labelling costs on food business operators for products that contain no industrial trans fats and where there is therefore no direct benefit. Firms that have already removed industrial trans fats from their products and firms whose products will never contain industrial trans fats by virtue of their composition will still need to change the nutrient declaration.

Voluntary agreements also have the potential for deadweight costs if there is substantial participation by firms that already meet the agreements’ objectives.

Of note, the period over which benefits and costs are assessed is in principle the same, but the costs of implementation are zero after 10 years irrespective of the option implemented. An important difference in the profile of costs and benefits is that costs are incurred only while the options are being implemented, while benefits extend over a longer time period as actions to eliminate industrial trans fats from the food chain now will affect the health of the population long into the future.

Benefits under the different baselines are expected to start to materialise well before 10 years. Generally, benefits are assessed against baseline impacts over a 85 year period. While the changes in intake of industrial trans fats would take place only during the 10 year period, these would have ongoing health impacts which are measured over a longer 85 year period.

Table 12 Cost-effectiveness measure of options by variant of the baseline scenario

Policy option

EUR per disability-adjusted life year saved

 

B1

B2

B3

Option 1a

>125

>71

>5

Option 1b

74

50

5

Option 2

>14,037

>9,826

>289

Option 3a

>148

>84

>6

Option 3b

87

58

5

Note: ‘>’ indicates that the figures show the lowest expected cost per disability-adjusted life year saved given the greater uncertainty about the efficacy of labelling and voluntary agreements in changing intake.

7.6.Coherence with other EU policy objectives

There were concerns from industry that the legal obligation to label the presence of partially or fully hydrogenated oils in a product might interact negatively with a legal limit on industrial trans fats. Industry stakeholders consider that consumers who have been monitoring the mention of “hydrogenated oil” on labels to avoid industrial trans fats may not understand the difference between “partial” and “fully” hydrogenated oil. Products compliant with the legal limit on industrial trans fats content but containing fully hydrogenated oil could be penalised, according to industry. However, studies on consumer awareness in the EU point to very low levels of consumer knowledge about industrial trans fats and the link to partly or fully or hydrogenated oils. 152 Option 3 b would potentially be a measure in coherence with measures adopted in the US and Canada, facilitating external trade with those regions as similar product requirements are established, in line with EU policy objectives to facilitate external trade,.

7.7.Proportionality

Based on the appraisal summarised above the legal options appear to be the most proportionate solution to the problem of the health consequences of industrial trans fats consumption and the Internal Market effects of uncoordinated approaches to tackling them. The legal options are broad in scope as they in principle concern all food business operators. However, more significant costs are imposed only on those food business operators still using ingredients with industrial trans fats levels above the legal limit and that need to use alternative ingredients to comply. This is in contrast to the labelling option which in many cases will impose costs without generating a corresponding benefit. The scale of the direct health benefits on offer, and the associated reductions in burdens on healthcare services and expenditure are substantial.

7.8.Specific tests: SME test

Based on the screening appraisal, the Competition Test and the Fundamental Rights tests specified by the Better Regulation toolbox do not apply. Specific consideration is needed of the impacts on SMEs, which form a large share of the population of food business operators affected. The ICF study collected evidence to document the perspective from SMEs. This has included direct interviews with a small number of SME representatives (see Table 20 in Annex 4). Due to the challenges of reaching out to SMEs directly, the study team has aimed to clarify the SME perspective by engaging with business organisations that represent a large proportion of SMEs within the sector impacted by the policy options. The majority of members were SMEs for nine of the 16 business organisations who responded to the validation consultation in the ICF study.

The assessment of the impacts on SMEs is summarised below. Eurostat data indicate that SMEs account for:

·99% of enterprises and 50% of value added in the food manufacturing sector; and

·99.9% of enterprises and 75% of value added in the food service sector.

The number of SMEs falling within the scope of each option is estimated in Table 1 3. The number is larger for Options 1a, 1b, 3a and 3b, which cover the food service sector, than Option 2, which relates to pre-packaged foods only. In practice, many SMEs will not be affected by Options 1a and 3a as they will choose not to participate in the voluntary agreement.

Table 13 Cost-effectiveness measure of options by baseline variant

Policy option

Number of SMEs in scope

Nature of measure

Options 1a, 3a

1,079,169

Voluntary

Options 1b, 3b

1,079,169

Mandatory

Option 2

258,020

Mandatory    

Combined options 1a/3a and 2

1,172,789

Mandatory & Voluntary

Combined options 1b/3b and 2

1,172,789

Mandatory

The number of SMEs in scope is largest for the combined options, as (like Option 2) they affect all pre-packed food businesses (whether or not their products are likely to contain industrial trans fats), and, like Options 1 and 3, they affect food service as well as manufacturing businesses.

The estimated costs of the options for SMEs are given in Table 14. These costs have been estimated by estimating the share of the overall business cost estimates above that are borne by SMEs. It is assumed that the share of administrative costs borne by SMEs is proportionate to the number of SMEs in the relevant sectors, and that the share of compliance costs is proportionate to the share of output accounted for by SMEs. These costs are then divided by the overall number of SMEs to estimate the average cost per business.

The estimated average cost per business (expressed in present value terms) ranges from €32 for Option 1a to €18,569 for Option 2. This includes both one-off and recurring costs.

Table 14 Present value of expected costs incurred by SMEs

Policy option

Administrative costs (M EUR)

Compliance costs (M EUR)

Total costs (M EUR)

Average cost per SME (Euro)

Option 1a

3.2

31.0

34.1

32

Option 1b

17.7

179.2

196.9

182

Option 2

6.6

4,784.4

4,791.0

18,569

Option 3a

3.3

36.9

40.2

37

Option 3b

18.7

211.9

230.6

214

Option 1a+2

17.6

4,784.4

4,802.0

4,095

Option 1b+2

18.6

4,784.4

4,803.0

4,095

Option 3a+2

6.6

4,784.4

4,791.0

4,085

Option 3b + 2

6.6

4,784.4

4,791.0

4,085

The country research looked specifically for evidence of impacts on SMEs but little was identified beyond reference to:

·The opportunity provided by supply chain innovation for SMEs to achieve compliance through switching to alternative oils or fats from their ingredient suppliers;

·The challenges some producers, including some small firms, had experienced in reformulation due to particular performance requirements of fats or oils in their production.

The average cost per SME for option 1b of 182 Euro seems to be not too excessive, however, as this is an average value individual SMEs may have to bear a larger cost burden. In order to mitigate the cost and therefore the risk for SMEs of being forced out of business, sufficient transition time would need to be considered. During such period, SMEs have to search for alternative ingredients and test them. Empirical evidence from Hungary (the confectionary industry) suggests that 1.5 to 2 years transition periods (rather than the 1 year given in Hungary) would have helped the sector significantly 153 . In the same vein, Slovenia provides for 1 year, also to help small businesses such as bakeries. A transition period of up to 2 years could be considered, which should enable SMEs to factor in reformulation costs and other costs in their planning to accommodate changes when it best suits their situation.

Apart from sufficient transition time, (technical) support from associations and larger food business operators could help SMEs to adapt. Both a numbers of multinationals as well as FoodDrinkEurope have committed to provide technical support to SMEs to eliminate partial hydrogenated oils from foods. Finally, technical (and economic) solutions provided by suppliers are expected to help SMEs to comply with the new regulatory requirements. Examples from Canada and from the Netherlands (both provided in detail in Annex 17.2) show that ingredient suppliers developed formulations to allow bakeries, as well as other producers such as margarine companies, the food service sector, and virtually all food companies to provide products with no trans fats and, in most cases, lower saturated fat. Ingredients to the bakery sector such as bread and pastry mixes were developed more than 10 years ago to replace partly hydrogenated oil with high levels of industrial trans fats content to fully hydrogenated oil with a industrial trans fats content below 2 %. The initiative of suppliers responded to regulatory requirements (including the legislation in Denmark) and customer demands (demands from large customers, supermarkets and producers of bakery products).

The evidence collected by ICF indicates that SMEs are likely to incur significant costs in order to comply with the measures. The views of stakeholders are that most SMEs will address the requirements by switching ingredients, relying on suppliers of oils and fats. This applies notably to food service SMEs: in some countries such as Austria or Denmark alternative oils have been purchased for frying that effectively enable compliance with the 2% limit on industrial trans fats content. However, the evidence collected by ICF also indicates that challenges will be greater in the food manufacturing industry, where SMEs are likely to encounter difficulties when reformulating their products. According to ICF, while business associations, mainly informed by the experience of very large manufacturers, may provide supporting information to SMEs, it is not certain that SMEs will be able to profit from the solutions developed by larger players in order to achieve compliance.

8.Preferred option    

The legal policy options (1b and 3b) perform better than the alternatives in relation to health benefits (measured in disability-adjusted life years), reduction in health inequalities, improvements in the functioning of the Internal Market, efficiency and proportionality. Details are provided in Table50 in Annex 21, Table 11 and section 7.7.

The savings in health-related costs to society are very much greater than the incremental costs for all options except the labelling. The benefit: cost ratio is largest for options 1b and 3b. Details are provided in Table 11. Furthermore, legislation imposing a maximum limit to industrial trans fats content of products sold direct to consumers (option 1b) performs better in terms of efficiency and coherence than a legal ban on partly hydrogenated oils (option 3b) in that:

·Equivalent social benefits are delivered at a lower cost to the industry;

·Its approach is consistent with the measures already adopted by a number of Member States (and actions planned in others);

·Compared to option 3b, option 1b avoids the need to agree a partly hydrogenated oils definition and establish the capacity across the EU to test oils for compliance with it (both for enforcement purposes and for assurance within the supply chain).

A combination of either of the two options 1b and 3b with mandatory labelling of trans fats levels on pre-packed products (option 2) would raise overall costs significantly. Such a combination is unlikely to deliver added social benefits.

The expected benefits of the voluntary options (1a or 3a), while positive, are smaller and much less certain, generating smaller overall costs, and providing much smaller expected benefits than options 1a or 3a. The members of the food business organisations that are likely to participate in EU voluntary agreements have already reformulated their products to reduce industrial trans fats levels or have eliminated industrial trans fats from their products completely. Research collected by ICF suggests that the businesses responsible for much of the residual industrial trans fats in the food chain are unlikely to participate in an EU agreement, either directly or through representative organisations. The voluntary options do not provide the assured protection that is delivered by the legal alternatives.

In summary, legal policy options (1b and 3b) are the preferred options. Legal action at EU level to reduce industrial trans fats in food would generate positive impacts on health that are substantial as compared to the costs. These measures would substantially remove industrial trans fats-related health inequalities, provide assured protection to consumers across the EU, and support the integrity of the Internal Market. They would also help to ensure a consistent standard of food quality across the EU. The results are robust across all foreseen variants of the baseline scenario. The options that perform best in the appraisal are a legal limit of 2% on industrial trans fats content on food products sold directly to consumers and a legal ban on partly hydrogenated oils. A legal limit of 2% on industrial trans fats content performs marginally better than a legal ban on partly hydrogenated oils in terms of efficiency and of coherence with existing Member State legislation. Therefore, selecting between 1b and 3b, option 1b is the preferred option.

The preferred option is 1b rather than 3b, even though both achieve the same health benefits for the following reasons:

Efficiency and coherence

Option 1b) performs better in terms of efficiency and coherence with existing Member State laws on industrial trans fats than a legal ban on partly hydrogenated oils (option 3b) in that equivalent social benefits are delivered at a lower cost to the industry; Its approach is consistent with the measures already adopted by a number of Member States (and actions planned in others); Compared to option 3b, option 1b is not linked to enforcement challenges: for option 3b a definition of partly hydrogenated oils and a test would need to be established. However, available tools, such as the IV value would pose the following challenges: (i) there is no health or consumer benefit rationale as a basis for the use of iodine value as an enforcement tool; (ii) an iodine value cannot be directly related to TFA content; (iii) there are technological problems to assess the iodine value on a composite food product, which also is not a robust indictor for the presence of industrial trans fats.

Acceptance

Particularly industry in the EU has clearly expressed preference for option 1b as compared to option 3b. Also consumer organisations and health NGOs have expressed agreement with and support for option 1b. The European Parliament and the Council have called for legal limits; particularly the 7 Member States that have already implemented legal limits are in favour of such an EU wide measure, option 3b would need to be introduced as a new legal measure in all Member States, option 1b only in 21 Member States. The same would apply to food business operators where with option 3b they would need to adjust throughout the EU, while for option 1 b only FBOs not active in the 7 Member States with existing legal measures would need to adapt, FBO active in 4 of the 7 Member States would need to slightly adapt to the harmonised legal limit of 2 % on fat basis. Choosing option 3b is expected to meet some opposition, particularly from industry side, but potentially also from the MS that already have a legal limit in place.

In relation to option 1b following the model applied in Member States already, derogations for low fat products could be considered. However, the health impact of such derogations needs to be taken into account. Four of the 7 Member States with national legal limits apply different limits for lower fat products. In view of an EU level legal limit, a legal limit of 2 % on fat basis is in line with EFSA and WHO recommendation, seems achievable in practice and is generally accepted by both consumer organisations as well as health NGOs on the one hand, and industry on the other hand.

Small and micro enterprises constitute the majority of food business operators in the EU. Furthermore, particularly those enterprises are assumed to be contributing to a high degree to still high intakes of industrial trans fats as they have not yet followed past reformulation trends. Further derogations for those SMEs, including for micro enterprises, would jeopardise the effectiveness of the measure.

In order to address the cost burden of the legal measure for SMEs, sufficient transition periods could be granted to ease the burden on them and reduce the risk that due to the measure, small and micro enterprises would be forced out of the market. Empirical evidence from Hungary (for the confectionary industry – a sector estimated to face major technical challenges) suggests that 1.5 to 2 years transition periods (rather than the 1 year given in Hungary) would have helped the sector significantly 154 . In the same vein, Slovenia provides for 1 year, also to help small businesses such as bakeries. A transition period of up to 2 years could be considered, which should enable SMEs to factor in reformulation costs and other costs in their planning to accommodate changes when it best suits their situation.

9.How will actual impacts be monitored and evaluated? 

Present knowledge on trans fats intakes in most EU countries is not robust because it is often obtained from pragmatic dietary assessment surveys that do not rely on nutrient composition databases with complete trans fats data. Therefore, current levels in foods in the EU as well as intake levels cannot be determined with a very high degree of confidence, uncertainties remain. Collecting comprehensive data about industrial trans fats levels in foods before and after the measure enters into force is estimated to be costly. Dietary intake is measured in Member States not very frequently and collection methods may have to be considerably adjusted and refined in order to capture differences in industrial trans fats intake, which would be also linked with considerable costs.

Using assessment methods and instruments already in place could generate valuable indications and estimates about development of industrial trans fats levels in foods after the measure is implemented, and could be considered an alternative, more cost-efficient way to measure success of the initiative.

A number of instruments are available at EU level to monitoring health impacts. However, to assess whether those health impacts are linked with the proposed initiative could only be determined in a dedicated research project. Methods are already in place to collect health data in the EU with regard to cardio vascular diseases in the years following the implementation of an EU level policy measure Such data are regularly collected, such as for a two-year initiative undertaken by the European Commission in 'The State of Health in the EU initiative'.

The evolution of levels of industrial trans fats in foods will be assessed regularly by Member States checking compliance. DG Health and Food Safety audits and related non-audit activities ensures that EU legislation on food safety is properly implemented and enforced and could integrate the issue of trans fats levels in foods in the multi-annual programme. Costs of analysis would be borne by Member States, costs for the auditing by the Commission.

With regard to enforcement issues, in 2016, the JRC of the Commission provided support in developing a reliable methodology to determine levels of industrial trans fats. The JRC delivered their final report 'Analytical approach for checking the compliance of fats and oils' that describes a way of measurement of trans fats and estimating the respective content of industrial trans fats by a proposed calculation method.



ANNEX 1: Procedural information

1.Lead dg, decide planning

Lead DG: European Commission Directorate-General Health and Food Safety, DG SANTE

The Inception Impact Assessment on an Initiative to limit industrial trans fats intakes in the EU 155 was published on 11 October 2016 and the corresponding consultation strategy 156 on 23 June 2017. The inception impact assessment set out the context, scope and aim of the exercise.

The Inter-service Steering Group (ISG) on the initiative to limit industrial trans fats intakes in the EU that had been set up held its first meeting on 8 November 2016 and supported DG SANTE for this Impact Assessment. In addition to the Secretariat General and Legal Service, 6 Directorates-General were invited and designated their representatives to the ISG: MARE, AGRI, RTD, GROW, JRC-ISPRA, ENV and TRADE. The ISG was consulted on the consultation strategy, draft documents and questionnaires of the Study to support the Impact Assessment on the initiative to limit industrial trans fats intakes in the EU, the draft questionnaire of the public consultation and the drafts of this IA report. The ISG met six times to discuss preparatory documents and the draft IA report.

Political validation by Commissioner Andriukaitis, Vice President Katainen and first Vice President Timmermans was received for the Agenda Planning Fiche (2016/SANTE/143) on 6 September 2016.



2.Organisation and timing 

5 December 2015

Adoption of report from the Commission to the European Parliament and the Council regarding trans fats in foods and in the overall diet of the Union population (COM(2015) 619

6 September 2016

Political validation by CSSR Andriukaitis, VP Katainen & 1st VP Timmermans of Agenda Planning Fiche (2016/SANTE/143)

11 October 2016

Publication of the Inception Impact Assessment (IIA)

8 November 2016

1st meeting of the ISG on the trans fats initiative - Presented the IIA; Exchange of views on the Terms of Reference (ToR) for external study; agreement to carry out an OPC

13 December 2016

Final version of ToR for the external study to support the IA sent to ISG

21 December 2016

SANTE/2016/E1/055 - Call for tender for external study to support the I.A. launched [Ares(2016) 7115662]

Two offers were received, and the evaluation Committee decided to award the contract to ICF Consulting Services Limited

17 February 2017

Feedback received on the IIA published on the relevant webpage of DG Health and Food Safety

(a total of 9 contributions received)

22 March 2017

Contract signed with ICF Consulting Services

29 March 2017

2nd meeting of the ISG on the trans fats initiative -

Kick-off meeting with the contractor

15 May 2017

3rd meeting of the ISG on the trans fats initiative -

To discuss the Draft Inception Report on trans fats study from contractor

17 May 2017

Draft Inception Report sent to ISG for comments

15 June 2017

Email to ISG for comments and approval of

1) revised Inception Report, which was prepared by the contractor (ICF) after taking into account the different comments of the ISG;

2) draft Consultation Strategy Document for the Trans Fats initiative

16 June 2017

ISG approved revised Inception Report

21 June 2017

ISG approved the draft Consultation Strategy document for the trans fats initiative

23 June 2017

Publication of the Consultation Strategy document

11 September 2017

4th meeting of the ISG on the trans fats initiative -

To discuss the Draft Interim Report on trans fats study from contractor

12 September 2017

Email to ISG for comments on

1) draft Interim Report;

2) draft validation questionnaire for ICF study

18 September 2017

Draft validation questionnaire approved by ISG

12 October 2017

Email to ISG with draft questionnaire for the OPC

27 October 2017

Final version of OPC questionnaire approved by ISG

16 November

SG approval of OPC

17 November 2017 to 9 February 2018

Public consultation open for 12 weeks

'Open public consultation on the initiative to limit industrial trans fats intakes in the EU'

6 December 2017

Email to ISG with draft Final Report

12 December 2017

5th meeting of the ISG on the trans fats initiative -

To discuss the draft Final Report on trans fats study from contractor

12 December 2017

Email to ISG for comments on draft Final Report

12 January 2018

Email to ISG with revised Final Report for comments

24 January 2018

ISG approves Final Report: Study to support the impact assessment of the initiative to limit industrial trans fats in the EU

3 May 2018

6th meeting of the ISG on the trans fats initiative -

To discuss the Final Report on trans fats study from contractor; the outcome of the OPC; inform on state of play on IA; agreement to discuss draft IA via exchange of emails and if ISG wish to discuss a meeting will be arranged

4 May 2018

Email to ISG for comments on draft IA

14 May 2018

ISG approves draft IA

16 May 2018

Submission of the draft IA to Regulatory Scrutiny Board (RSB)

13 June 2018

Regulatory Scrutiny Board meeting

18 June 2018

Positive opinion by the Regulatory Scrutiny Board,

3.Consultation of the RSB

The meeting of the Regulatory Scrutiny Board (RSB) took place on 13 June 2018. The Regulatory Scrutiny Board gave its positive opinion on 18 June 2018 together with a recommendation to further improve the IA report with respect to some aspects, which are reported below. All the Board's recommendations were taken into account by adding explanations in the IA report, except for the preference of the RSB to select the most likely scenario as baseline and to include the others in the impacts section as sensitivity analysis; since there is evidence underpinning each of the baseline scenarios, a decision on the most likely scenario could face the risk of being seen as arbitrary. By taking into account the RSB's recommendation to justify the use of alternative baseline scenarios and including clear explanations with respect to the rationale for the alternative scenarios (which are included to take into account uncertainty about future developments) the various baseline scenarios are presented in clearer terms.

Indications on how the RSB's comments, including the paragraphs/pages which have been added/modified to address the RSB comments, can be found under each element of the recommendations below.

Considerations and recommendations for improvement by the Regulatory Scrutiny Board:

(1) The report should further justify the use of alternative baseline scenarios.

This recommendation was taken into account by adding explanatory text and justification on page 28 paragraph 2 and 3 and pages 29 to 31.

The report should elaborate on the reasons for questioning the validity of the JRC projections and provide additional evidence of the levelling-off of the downward trend in TFA intake across Europe.

This recommendation was taken into account by adding explanatory text and additional evidence on pages 15/16 in the 2nd bullet point, page 17 paragraph 1, page 24 paragraph 3, page 27 paragraph 1 and pages 29 to 31.

It should also further acknowledge uncertainties surrounding this trend, and stress the reasons for increase of TFA intake in some regions.

This recommendation was taken into account by adding explanatory text on page 28 paragraph 2 to 3 and pages 29 to 31.

It could better indicate the distribution and size of population subgroups at risk of excessive TFA intake.

This recommendation was taken into account by information and detailed background data on page 15 1st bullet point, page 44 paragraph 3 and Annex 9.

The report could better explain that existing instruments (such as voluntary industry initiatives) have reached their limits.

This recommendation was taken into account by adding explanatory text on page 19 regarding the risk that imported products that would not be covered by voluntary industry initiatives in a Member State is high, particular in certain Member States, and pages 29 to 31.

The introduction could also better reflect the ongoing global trend in terms of adopting legal measures to limit TFA intakes.

This recommendation was taken into account by adding explanatory text on page 12 paragraph 4 and page 18 1st bullet point.

Building on these elements, the description of the need to act could better reflect potential reputational risks for the EU in case of inaction.

This recommendation was taken into account by adding text about the potential reputational risks on page 18 1st bullet point.

(2) The report should better explain the differences between the option to set an upper limit on TFA content and the option to ban partly hydrogenated oils.

This recommendation was taken into account by adding a figure and explanatory text on page 33, page 35, page 38, page 39 paragraph 1 to 2 and page 70.

The impacts section should more clearly explain why the two options have identical expected health benefits.

This recommendation was taken into account by adding explanatory text on page 38 paragraphs 2and 5, page 39 paragraph 1, highlighting that both options would introduce a comparable cut-off point at 2% trans fats of the fat content, and page 43 paragraph 2.

The report could explain why a more ambitious option in terms of health benefits was not envisaged. The report should also better justify the proposed threshold and explain why it does not consider alternative options such as a limit below 2% of total fat content as feasible. It should more clearly compare them in terms of scope, approach, potential implementation issues and impacts on health as well as for businesses.

These recommendations were taken into account by adding explanatory text and justifications on pages 9/10 paragraph 3, page 35 paragraphs 2, 3 and 5, page 36 paragraphs 1 and 2, page 39 last paragraph.

(3) The report could refine its analysis of the impacts of the proposed measures on the food sector, including the costs for SMEs.

This recommendation was taken into account by adding more evidence on the impact on SMEs from Canada and the hospitality sector on page 51 paragraphs 4 to 5.

It could better describe the market structure of the relevant food sector(s) and describe how the measures might impact different actors in the food value chain. A revised intervention logic could support such an explanation by illustrating the channels through which trans fats enter the food chain and the stages at which different measures propose to intervene.

These recommendations were taken into account by adding information and adding an illustration of the channels through which trans fats may enter the food chain and the stages at which different measures would intervene therefore showing how the measures impact on different actors in the food chain on page 33 and page 45 paragraph 4.

The report could also expand on planned mitigation measures, e.g. in terms of transition periods.

This recommendation was taken into account by expanding on mitigation measures on page 67 last paragraph, page 68 paragraphs 1 to 3, page 70 last paragraph and page 71 paragraph 1.

(4) The report should better explain how future monitoring and evaluation would work.

This recommendation was taken into account by adding explanatory text on future monitoring and evaluation on page 71 paragraphs 2 to 4 and paragraph 6.

4.Evidence, sources and quality

The main source of evidence was the study performed by ICF. Robustness of the results of the study was ensured thanks to sensitivity analysis and comprehensive triangulation of data and evidence collected in the first phase of work via input on a validation questionnaire. Annex 4 provides a detailed explanation about the methodology used, as well as under Annex 4, 6. information about the strength and limitations of the method and under Annex 4, 7. a discussion of information gaps and uncertainties.



ANNEX 2: Stakeholder consultation

1.Introduction

Trans fats 157 are present in foods and increase the risk of coronary heart disease more than any other macronutrient. Industrial trans fats are still present at levels of concern in certain foods and intakes are still excessive in certain cases. This lack of homogeneity in the EU hampers the effective functioning of the Internal Market, negatively affects the protection of consumers' health and contributes to the perpetuation of health inequalities.

In this context, the European Commission is carrying out an Impact Assessment (IA) on a possible EU-based initiative to limit industrial trans fats intakes in the diet of EU consumers. The Inception Impact Assessment (IAA) on the trans fats initiative was published on 11 October 2016 for stakeholders' feedback 158 . It included a preliminary reflection on all the key elements of the IA with a listing of the policy options considered 159 . The Consultation Strategy 160 provided a more detailed outline of the consultation activities planned by the Commission in the context of its trans fats initiative.

2.Stakeholder groups covered by the consultation activities

The Consultation Strategy listed the stakeholders expected to have an interest in the trans fats initiative:

·EU consumers;

·EU food business operators, an effort was made in the consultations to try to obtain specific feedback on mass caterers providing non pre-packed foods ready for consumption and SMEs, taking into account the sometimes more limited resources at their disposal;

·Third-country-based food business operators exporting into the EU;

·Public authorities of EU Member States;

·International organisations and associations, academia and think tanks;

·Public authorities of third countries which already took action on trans fats;

·Individual citizens.

3.Consultation activities already carried out before the launch of the IA

The Commission services had already carried out different consultations on trans fats in preparation of the Commission's report of 3 December 2015 161 , and in relation to the feedback mechanism for the IIA, which constitute an important data source for the IA and the related consultations. Two surveys (one with experts of Member States, Iceland and Norway), and one with stakeholders in the context of the Advisory Group on the Food Chain and Animal and Plant Health, that also was consulted via a written consultation, collected factual information and stakeholders' views on trans fats in foodstuffs and diets in Europe and impacts of strategies to reduce population exposure.

The feedback gathered through these surveys contributed to constitute the evidence-base for the Commission's report on trans fats and helped developing different elements of the IA.

The results of the abovementioned consultations are analysed in detail in the Staff Working Document accompanying the Commission's report 162 .

Nine Stakeholders provided feedback during the feedback mechanism period for the IIA. All of them except for one being an organisation representing national business interests, were EU level organisations and identified themselves as representing company/industry (3 replies) or NGOs (4 replies). Eight contributors expressed preferences for the identified policy options, the majority for legal measures, such as option legal limits on trans fats. Voluntary measures were preferred by 2 business interest contributors, a national contributor pointed to positive experiences. Mandatory labelling of trans fats, was only preferred by one business interest contributor.

Furthermore, NGOs considered that options 1a and 3a as well as the labelling options would not address the problem. Also, NGOs emphasised the urgency of the matter, calling for swift implementations and short transition periods in order to save lives and costs. Replacement fats would need to be considered as well and their impacts on environment and health.

Business interest contributors representing food categories that are sources of ruminant trans fats were satisfied with the focus on industrial trans fats, while the 2 contributors representing business interests of the vegetable oils and fats sector highlighted that scientific evidence was pointing to similar health effects of industrial versus ruminant trans fats and that measures focussing on industrial trans fats only could lead to unfair competition.

4.Outline of the Consultation strategy for the IA on an initiative to limit industrial trans fats intakes in the EU 

The objective of the consultations for the IA on an initiative to limit industrial trans fats intakes in the EU was three-fold:

·to fill in data/information gaps with respect to the baseline scenario and the potential impact of the different policy options retained in the IA;

·to corroborate the findings on the expected economic, social and environmental impacts of the different policy options;

·to give an additional possibility to all stakeholders and individual citizens to provide their views on key elements of the IA.

The planned consultations should also allow the Commission to identify whether anything has been left out in its assessment and to foster transparency and accountability and ensure broadest public validation for the EU initiative.

The following consultation activities were foreseen as part of the Consultation Strategy.

1.Targeted consultations: these were carried out by the contractor ICF which prepared the external study to support the IA and included:

a.Interviews with national competent authorities in the areas of health and food safety and relevant food business representative organisations. The interviews were aimed at collecting primary data to fill in information gaps. The interviews were carried out in the official language of each country selected or in English.

b.Targeted follow-up contacts with sector associations and/or individual businesses to gather additional data. Getting insights into impacts on SMEs was a key objective of these follow-ups.

c.An online survey of a variety of stakeholder groups based on a questionnaire that allowed the contractor to corroborate its findings on the economic, social and environmental impacts of the different policy options. The online survey was distributed to stakeholders at EU and national level in English, responses were accepted in other languages.

2. Open Public consultation (OPC).

A questionnaire translated in all EU official languages was published on the "Your Voice in Europe" website for 12 weeks with the possibility to reply in all EU official languages. The questionnaire built on the progress in the IA process and feedback received.

The methodology used to process the data of the OPC was done via counting from excel tables and clustering of open text field replies in order to qualitatively assess major themes.

5.Results of the Consultation activities for the IA on an initiative to limit industrial trans fats intakes in the EU 

The results of the targeted consultations 163 fed into the IA report on an initiative to limit industrial trans fats intakes in the EU and are in detail reported there. Generally, a number of replies there were in line with replies received from stakeholders during the OPC. Legal limits received support by a number of (also industry) stakeholders, while particular views relating to the labelling of ruminant trans fats or a link with requirements to indicate hydrogenation of oils in the ingredient lists were fully in agreement with the replies received in the OPC.

Regarding the OPC 164 , 118 replies were received, 54 % from individuals 165  and 46 % from stakeholders, experts or participants replying on behalf of an organisation. NGOs represented 20 % or all replies. 15 % of all replies were from business. Of those, 3 SMEs replied, as well as 11 national or EU level business associations that represent a membership with more than 30 % of SMEs. Therefore 12 % of all replies represented SMEs' views. Business was active predominantly in the following sectors: margarines and spreads; dairy products; oils and fats. 7 % or all replies were from public authorities. Two respondents identified themselves as "other", and one international organisations as well as a think tank/research institute participated. A campaign could not be identified in the replies. Not all respondents provided replies for all questions.

With regard to geographic representation, respondents from 23 Member States and 1 respondent from a non-EU country were registered. Over 10 respondents replied from Spain (22) Belgium (19), Germany (15) and the United Kingdom (11).

The first set of questions asked whether the problem description with regard to the trans fats intakes and the trans fats level in foods 166 and the conclusions of the 2015 Commission report on trans fats, summarised again in the IIA 167 were supported. With regard to the trans fats intake, among the respondents to this question, 72 % of consumers, 71 % of industry and 88 % of both public authorities and NGOs respondents agreed, 11 % of consumers and one of the public authorities replying to this question as well as one of the 21 NGOs replying to this question disagreed. 168 Number of responses by stakeholder category is given in Table 15. All but one (individual) respondent that disagreed indicated that actual trans fats intakes and trans fats levels in foods were higher than described in the IIA.

Table 15: Number of responses by stakeholder category in relation to trans fats intake levels and levels in foods as described in Inception Impact Assessment

consumers

industry

public authorities

NGOs

others

Trans fats intake Agreement Disagreement

I don't know

46

7

11

12

0

5

7

1

0

21

1

2

3

1

0

Trans fats levels in food Agreement

Disagreement

I don't know

49

7

8

10

1

6

8

0

0

22

1

1

4

0

0

Asked about their level of concern, most of respondents that answered this question were very concerned or concerned about the impacts of industrial trans fats consumption on the health of the population as a whole (46 % and 27 %, respectively), on the health of particular social groups (61 % and 29 %, respectively) and about current differences in rules and standards regarding industrial trans fats content in the EU market and impacts on consumer protection levels (48 % and 35 %, respectively).

Table 16 Number of respondents rating their level of concern of different issues related to trans fats by stakeholder category

Option

Rating

not at all concerned

not concerned

somewhat concerned

concerned

very concerned

The impacts of industrial trans fats consumption on the health of the population as a whole

a) 1

b) 1

c) 0

d) 0

e) 0

total: 2

a) 3

b) 3

c) 0

d) 0

e) 0

total: 6

a) 9

b) 6

c) 4

d) 2

e) 2

total: 23

a) 19

b) 2

c) 3

d) 7

e) 0

total: 31

a) 32

b) 3

c) 1

d) 14

e) 2

total: 52

The impacts of industrial trans fats consumption on the health of particular social groups

a) 0

b) 0

c) 0

d) 0

e) 0

total: 0

a) 0

b) 2

c) 0

d) 0

e) 0

total: 2

a) 6

b) 2

c) 0

d) 0

e) 1

total: 9

a) 18

b) 7

c) 5

d) 3

e) 0

total: 33

a) 40

b) 4

c) 3

d) 20

e) 3

total: 70

Current differences in rules and standards regarding industrial trans fats content in the EU market and impacts on consumer protection levels

a) 0

b) 0

c) 0

d) 0

e) 0

total: 0

a) 2

b) 0

c) 0

d) 0

e) 1

total: 3

a) 9

b) 6

c) 1

d) 0

e) 1

total: 17

a) 22

b) 6

c) 4

d) 7

e) 1

total: 40

a) 31

b) 3

c) 3

d) 16

e) 2

total: 55

Current differences in rules and standards regarding industrial trans fats content in the EU market and impacts on the functioning of the Internal Market

a) 2

b) 0

c) 0

d) 0

e) 0

total: 2

a) 8

b) 1

c) 2

d) 4

e) 1

total: 16

a) 20

b) 4

c) 1

d) 1

e) 2

total: 28

a) 14

b) 3

c) 2

d) 12

e) 0

total: 31

a) 20

b) 7

c) 3

d) 6

e) 1

total: 37

Current differences in rules and standards regarding industrial trans fats content and impacts on external trade

a) 7

b) 0

c) 0

d) 0

e) 0

total: 7

a) 15

b) 3

c) 3

d) 4

e) 1

total: 26

a) 20

b) 5

c) 1

d) 4

e) 2

total: 32

a) 7

b) 4

c) 3

d) 10

e) 0

total: 24

a) 15

b) 3

c) 1

d) 5

e) 1

total: 25

Legal uncertainty on future developments on industrial trans fats and impacts on the functioning of the Internal Market

a) 4

b) 0

c) 0

d) 0

e) 0

total: 4

a) 9

b) 2

c) 1

d) 0

e) 1

total: 13

a) 14

b) 3

c) 2

d) 7

e) 2

total: 28

a) 19

b) 3

c) 1

d) 12

e) 0

total: 35

a) 18

b) 7

c) 4

d) 4

e) 1

total: 34

The effects of industrial trans fats use on the image and reputation of the food industry

a) 6

b) 0

c) 0

d) 1

e) 1

total: 8

a) 13

b) 3

c) 2

d) 6

e) 1

total: 25

a) 18

b) 3

c) 2

d) 11

e) 1

total: 35

a) 12

b) 0

c) 3

d) 1

e) 0

total: 16

a) 15

b) 9

c) 1

d) 4

e) 1

total: 30

a) consumers    b) industry    c) Member States        d) NGOs    e) others

Most respondents were very concerned or concerned about current differences in rules and standards regarding industrial trans fats content in the EU market and impacts on the functioning of the Internal Market (33 % and 27 %, respectively) and about legal uncertainty on future developments on industrial trans fats and impacts on the functioning of the Internal Market (30 % and 31 %, respectively).

Most respondents totally agreed or agreed that food business operators tend to engage into reformulation only if there is an adequate incentive, which vary depending on the Member State (67 % and 19 %, respectively), that consumers could reduce industrial trans fats intakes by reducing consumption of products that contain them while in the EU, there are different levels of nutritional literacy/consumer awareness of the negative effects of trans fats on health so that not all consumers are actively seeking to avoid trans fats from their diet (63 % and 22 %, respectively).

Table 17 Number of respondents rating their level of agreement with different issues related to trans fats by stakeholder category

don't agree at all

don't agree

somewhat agree

agree

totally agree

The presence of industrial trans fats in foods is primarily the consequence of the use of particular oils by food manufacturers. These oils are commonly used as ingredients because of costs or technological considerations.

a) 1

b) 1

c) 0

d) 0

e) 0

total: 2

a) 1

b) 2

c) 0

d) 0

e) 0

total: 3

a) 4

b) 3

c) 1

d) 1

e) 0

total: 9

a) 28

b) 7

c) 3

d) 3

e) 1

total: 42

a) 30

b) 2

c) 4

d) 19

e) 3

total: 58

Food business operators tend to engage into reformulation only if there is an adequate incentive (e.g. market pressure, pressure by public authorities or legal obligations, level of corporate social responsibility) and these incentives vary depending on the Member State.

a) 0

b) 1

c) 0

d) 0

e) 0

total: 1

a) 2

b) 2

c) 0

d) 0

e) 0

total: 4

a) 3

b) 3

c) 2

d) 3

e) 0

total: 11

a) 12

b) 7

c) 1

d) 1

e) 1

total: 22

a) 47

b) 2

c) 5

d) 19

e) 3

total: 76

Consumers could reduce industrial trans fats intakes by reducing consumption of products that contain them. However, in the EU, there are different levels of nutritional literacy/consumer awareness of the negative effects of trans fats on health so that not all consumers are actively seeking to avoid trans fats from their diet.

a) 0

b) 2

c) 0

d) 0

e) 0

total: 2

a) 1

b) 4

c) 0

d) 0

e) 0

total: 5

a) 5

b) 4

c) 0

d) 1

e) 0

total: 10

a) 13

b) 4

c) 3

d) 4

e) 1

total: 25

a) 45

b) 1

c) 5

d) 18

e) 3

total: 72

Other considerations may influence consumers' behaviour (e.g. cost, taste, habits) and may have a stronger impact on some consumers' final decision than the intention to reduce trans fats intake.

a) 2

b) 0

c) 0

d) 0

e) 0

total: 2

a) 0

b) 2

c) 0

d) 0

e) 0

total: 2

a) 9

b) 5

c) 1

d) 1

e) 0

total: 16

a) 24

b) 5

c) 4

d) 6

e) 1

total: 40

a) 29

b) 3

c) 3

d) 16

e) 3

total: 54

Not all consumers can relate the information present on labels to the presence of industrial trans fats in foods and not all consumers can use that information to effectively compare different products taking into account their overall nutritional composition.

a) 1

b) 0

c) 0

d) 0

e) 0

total: 1

a) 1

b) 0

c) 0

d) 0

e) 0

total: 1

a) 6

b) 2

c) 0

d) 1

e) 0

total: 9

a) 15

b) 6

c) 2

d) 1

e) 1

total: 25

a) 41

b) 7

c) 6

d) 21

e) 3

total: 78

Consumers lack information on the presence of trans fats in non pre-packed foods (e.g. bakery products) and these can be an importance source of trans fats.

a) 2

b) 2

c) 0

d) 0

e) 0

total: 4

a) 2

b) 2

c) 0

d) 0

e) 0

total: 4

a) 4

b) 4

c) 0

d) 1

e) 0

total: 9

a) 14

b) 4

c) 2

d) 2

e) 1

total: 23

a) 42

b) 3

c) 6

d) 20

e) 3

total: 74

a) consumers    b) industry    c) Member States        d) NGOs    e) others

Asked about their agreement with the approach to focus the EU trans fats initiative on industrial trans fats, 86 % of respondents agreed, whereas 8 % disagreed. 169

Concerning subsidiarity, most respondents that answered this question agreed (91 %) with the statement in the IIA that an EU level trans fats initiative was in line with subsidiarity considerations 170 , 9 % disagreed. 171  

Table 18: Number of responses by stakeholder category in relation to the Inception Impact Assessment proposed focus on industrial trans fats and the analysis in relation to subsidiarity

consumers

industry

public authorities

NGOs

others

Focus on industrial trans fats

Agreement Disagreement

I don't know

53

5

6

14

3

1

8

0

0

21

2

0

4

0

0

Trans fats intitative in line with subsidiarity Agreement

Disagreement

I don't know

57

2

5

13

1

4

8

0

0

22

0

1

4

0

0

Respondents were asked to rate the different policy options to address industrial trans fats intakes in the EU.



Table 19 Number of respondents rating the different options to the OPC by stakeholder category

Option

Rating

not at all appropriate

not appropriate

somewhat appropriate

appropriate

very appropriate

1a limit industrial trans fats through self-regulation

a) 13

b) 1

c) 1

d) 6

e) 1

total: 22

a) 14

b) 3

c) 1

d) 14

e) 0

total: 32

a) 19

b) 6

c) 5

d) 1

e) 2

total: 33

a) 11

b) 4

c) 1

d) 1

e) 1

total: 18

a) 7

b) 3

c) 0

d) 2

e) 0

total: 12

1b limit industrial trans fats through a legally-binding measure

a) 2

b) 0

c) 0

d) 1

e) 0

total: 3

a) 3

b) 0

c) 2

d) 0

e) 0

total: 5

a) 10

b) 5

c) 0

d) 1

e) 1

total: 17

a) 16

b) 5

c) 3

d) 1

e) 1

total: 26

a) 33

b) 7

c) 3

d) 21

e) 2

total: 66

2: introduce mandatory labelling of the trans fats content in the nutrition declaration on labels

a) 2

b) 10

c) 1

d) 14

e) 1

total: 28

a) 6

b) 3

c) 3

d) 2

e) 0

total: 14

a) 7

b) 1

c) 4

d) 2

e) 1

total: 15

a) 11

b) 1

c) 0

d) 2

e) 1

total: 15

a) 38

b) 3

c) 0

d) 4

e) 1

total: 46

3a prohibit the use of partly hydrogenated through self-regulation

a) 14

b) 7

c) 1

d) 5

e) 1

total: 28

a) 12

b) 1

c) 1

d) 14

e) 0

total: 28

a) 19

b) 5

c) 4

d) 2

e) 2

total: 32

a) 7

b) 2

c) 2

d) 1

e) 1

total: 13

a) 12

b) 2

c) 0

d) 2

e) 0

total: 16

3bprohibit the use of partly hydrogenated through a legally-binding measure

a) 4

b) 7

c) 0

d) 2

e) 0

total: 13

a) 2

b) 2

c) 3

d) 9

e) 0

total: 16

a) 7

b) 2

c) 4

d) 2

e) 1

total: 16

a) 13

b) 4

c) 1

d) 5

e) 0

total: 23

a) 38

b) 2

c) 0

d) 6

e) 3

total: 49

a) consumers    b) industry    c) Member States        d) NGOs    e) others

Option 1b was considered by the highest number of respondents as very appropriate, followed by the other legal measure, option 3b and option 2, mandatory labelling. Few respondents considered self-regulation, options 1a and 3a as very appropriate. Likewise, self-regulation, options 1a and 3a were considered as somewhat appropriate.

With regard to the open text replies, the most frequently made comments were that the protection of the health of consumers at EU level should be the central focus for the Commission. Furthermore, it was frequently suggested that the Commission should choose the legal option that best protects health and is already implemented successfully at Member State level. Many respondents urged the Commission to speed up the process and act swiftly.

Also frequently comments called for EU regulation, establishing legal limits as the measure to best protect health, ensuring the effective functioning of the Internal Market and contributing to reducing health inequalities. Legislation should be clear, practical and not include exceptions. National legislation should be avoided. A number of comments highlighted that self-regulation would not be effective.

Concerning mandatory labelling, views were varied. Most frequently, particularly from individuals, the provision of clear information on labels was requested. However, labelling ruminant trans fats was supported by some (predominantly from stakeholders active in the vegetable oils and margarine and spreads sectors). Also, particularly those stakeholders called for the abolition of the requirement to label partly and fully hydrogenated fats. However, a high number of respondents, mostly active in the dairy sector, requested that ruminant trans fats should be excluded from mandatory labelling. A high number of respondents viewed labelling as a not effective.

Further comments, particularly from individuals, called for effective sanctions and enforcement. A number of individuals called for citizen education campaigns. Many comments highlighted the need to protect vulnerable groups. There were calls for further research, consideration of availability and health effects of substitution fats as well as calls to consider SMEs that could face particular problems.

SMEs and associations representing them, active in the dairy or the margarines and spreads sectors voiced the views with regard to mandatory labelling of ruminant trans fats as described above. Furthermore, individual SMEs preferred legal limits, considered national legal measures to be problematic, and that consumer health should be considered by the Commission. Association preferred EU wide regulation or commented that future reductions of trans fats levels were likely due to further national legal measures and voluntary reformulation efforts.

6.Conclusion

A number of consultations have fed into the work on trans fats in the past years in a stepwise approach, results of the different consultations were taken into account for the documents developed during the stages leading to this IA report (Commission report of 2015, IIA, consultation strategy, study by the external contractor). Generally, results of the consultations provided additional information, which were taken into account; views by stakeholders remained rather stable over the years and were considered for drafting the final IA report. The feedback received from the last consultation, the OPC, generally the feedback received confirmed the conclusions of the Commission's report of 3 December 2015, as well as the content of the IIA. Overall, there is a widespread support for introducing a legal limit of trans fats content in the EU, voluntary agreements are less supported and mandatory labelling of trans fats is supported by a number of individuals, while other stakeholders consider labelling to be not effective. No particular, important issues were raised during the OPC that have not been captured during previous consultations and considered in the IA report.

ANNEX 3: Who is affected and how?

1.Practical implications of the initiative

According to the preferred policy option, EU legislation would set a limit industrial trans fats content of 2% of the total fat content of final food products sold to the consumer, following the example of 2% limits to final food products in some Member States' legislation (Denmark (2003), Romania (2017) and Slovenia (2017) .

Alternatively, a more differentiated approach could be chosen, with higher limits (above 2% of total fat) for products with low fat content, and 2% of total fat for food categories with high fat content. Such differentiated limits have been adopted in Austria (2009), Hungary (2013), Latvia (2015) and Lithuania (2017). Austrian/ Hungarian legislation established a maximum content of trans fats at 10% of the total fat content where the total fat content is less than 3% of the product, and at 4% where the total fat content is between 3% and 20% of the product.

A transition period of 2 years is assumed, however, this could be modified during the negotiating and drafting phase of the legal measure.

With regard to food business operators and public administrations, financial and human resources are required to develop and implement the new legislation, develop and implement new products and processes, source alternative ingredients and monitor and enforce implementation.

Administrative costs are incurred by businesses in understanding the rules, determining responses and providing information, and by the public authorities in implementing and enforcing the rules, monitoring and reporting. Compliance costs are incurred by businesses in meeting the legal obligations. These may include the costs of reformulating products and purchasing alternative ingredients. Affected food business operators include those active in the pre-packed and non-prepacked food businesses, and food service companies. Only subsectors whose products are likely to contain industrial trans fats will be affected and businesses in countries with existing legislation are not affected.

With regard to the potentially significant impact on SMEs that is expected to be negative, such impacts are supported by the situation that all SMEs producing foods above the legal limit will be forced to take action and that SMEs may face relatively greater costs and challenges compared to larger firms. However, many SMEs will adopt solutions developed by suppliers, limiting costs. They are likely to be followers of ingredient substitution strategies developed by suppliers or larger firms already. Furthermore, there is a commitment by a large food business association to further encourage and support particularly SMEs, who still face technological difficulties in achieving the elimination of trans fats from partial hydrogenated oils from their products. 172

In this context, FoodDrinkEurope supports the implementation of a recommendation of maximum 2% industrial trans fats of the total fat content of the product sold to the final consumer.

From the business perspective, after the introduction of new legal rules some further activities would be needed, such as the provision of information, new product development, sourcing of alternative ingredients (substitution of ingredients with high industrial trans fats content with polyunsaturated, monounsaturated and saturated fats), implementation of new products and processes. Public administrations would need to provide guidance and advice, while taking care of monitoring and enforcement.

The resulting output consists of a decrease of industrial trans fats content in food below 2% of fat, and the linked output consists of a reduction of industrial trans fats consumption for all population subgroups, ongoing product development and innovation by food business operators, achievement of a level playing field within Internal Market, including imports, and a shift in alignment with practice in export markets. The long-term impacts lead to a decrease in cardio vascular diseases prevalence and mortality, improved productivity in EU economy from healthier consumers, reduced health inequalities amongst consumers, reduced economic burden on healthcare systems, enhanced image, competitiveness and innovation of food industry and increased trade across EU Member States (and third countries).

2.Summary of costs and benefits

I. Overview of Benefits (total for all provisions) – Preferred Option

Description

Amount

Comments

Direct benefits

Direct & indirect cost savings: lower disease burden compared to the baseline, (M EUR), span: possible span under different baseline scenarios

58,611 - 304,366

Figures represent the reduction of health-related costs over 85 years

EU consumers will benefit

Health gains in disability adjusted life years averted (EU28, Millions) compared to baseline, span indicates the possible span: possible span under different baseline scenarios

4 - 66

EU consumers will benefit

Internal Market benefits: harmonisation of standards and avoidance of legal complexity arising from differences in Member State law

Significant, strongly positive impact

Harmonisation removes industrial trans fats regulation as a factor contributing to differential operating conditions for firms in the Internal Market

Food businesses will benefit

Indirect benefits

Reduced health inequalities

Strongly positive impact , strong effect in reducing inequalities derived from industrial trans fats consumption

Measure expected to deliver strong health benefits for all groups, including for relatively disadvantaged groups

Environmental impacts

Potentially significant, could be positive or negative

II. Overview of costs (M EUR) – Preferred option

Citizens/Consumers

Businesses

Administrations

One-off

Recurrent

One-off

Recurrent

One-off

Recurrent

Action

Direct costs

Administrative costs :

- understanding requirements and verifying compliance

18.5

- cost for establishing the policy

5.0

- cost for inspection, monitoring and enforcement activities

6.1

year1-2

3.4

year ≥3

Compliance costs :

- cost of product testing

3.6

- cost of reformulating products

9.8

- additional annual cost of ingredients

44.5

Indirect costs

Consumer price increases

Very small

Very small

Product attribute

Small negative impact

Impacts on SMEs

Potentially significant, negative

ANNEX 4: Analytical methods

1.Study methodology development

This section provides an outline of the methodology developed by ICF for their study that was used as the principal source of data for this IA report.

Firstly, a methodology refinement was performed by ICF, including adjustments to the data collection strategy and impact assessment approach, reflecting discussions held with the ISG. Here, the baseline and policy options specifications as well as associated theories of change were developed. Theories of change make explicit the mechanism by which each intervention is expected to lead to the intended outcomes, and the key assumptions that need to be satisfied for it to do so.

The theory of change provides a narrative description of cause and effect, and the principal assumptions made about behaviour, context, etc. This framework also supports identification and analysis of factors that contribute to uncertainty about benefits (the level of assurance one has that the intervention will achieve its intended results) and costs (the likelihood that the costs will be higher or lower than the central estimate). This includes uncertainty relating to estimation of benefits and costs, and uncertainty about whether the benefits or costs will be realised (e.g. due to lack of compliance).

The analysis of the options through the development of theories of change helped to identify their respective expected impacts. The analytical framework included to outline for the different questions to be answered for the IA judgment criteria, indicators, sources of evidence, and methods of triangulation and validation.

2.Data collection and review

Information and data gaps left after the analysis of available information by ICF were identified and closed. As many data had already been collected previously to the ICF study and some analysis had been undertaken for a number of the impacts to be assessed, targeted efforts by ICF were carried out to complement those data with additional information that would enhance the analysis. It was also focused on closing information gaps in relation to:

·The baseline scenario and basic data required to support option appraisal;

·Studies which could help to inform the analysis of the impact of agreed potential policy options, and especially environmental impacts, for which comparatively few data are available.

Given the tight timetable set for the ICF study, the research was concentrated over a short period of time and was entirely aimed at informing the tools for the impact assessment models. It involved two sub-tasks:

·An in-depth review of existing data; and

·The collection of primary data from stakeholders in countries that have implemented similar measures to tackle trans fats intake via:

oA programme of interviews with competent authorities and food business representative organisations in the target countries;

oFollow-up research with selected sectors in those target countries to gather supplementary information.

ICF also consulted a number of representative organisations at EU level. These additional consultations were conducted to map better at the EU level those elements of the food supply chain that are relevant to the trans fats problem. The results informed extrapolation from existing data on how different policy options may impact the whole EU industry.

Review of existing literature and data

The desk research of ICF focused on sources identified earlier in the project, and was completed with additional literature search in the language of the countries selected for further investigation. Data were collected according to a common framework and a list of keywords defined for use in the search of publications and data. All publications were reviewed in order to extract relevant information, which was then inserted into a common template.

Interviews

The ICF team carried out 24 interviews with competent authorities and food business representatives in EU Member States and third countries. These interviews were carried out following a common approach to fill out gaps identified during the desk research. This included also some interviews with EU-level representative organisations in order to obtain additional inputs on impacts. The full list of interviews is provided in Table 20.

Targeted follow-ups

A number of targeted follow-up actions by ICF followed the interviews and literature review. These solicited a number of email submissions, particularly from industry. A number of additional phone conversations were held with various actors from the industry and researchers with expert knowledge of the topic in the individual countries.

The full list of interviews and targeted follow-ups is provided in Table 20.



Table 20 List of interviews and targeted follow-ups carried out

Country

Organisation

Type

Date of Interview / email submission

Step / task

Austria

AGES - Austrian Agency for Health and Nutrition Safety

National Competent Authority

Interview request forwarded to the responsible Ministry (BMGF)

2.1

Austria

BMGF - Ministry for Health and Women

National Competent Authority

Joint submission with AGES received on 09/08/2017.

2.1

Austria

National Association of Bakers

Industry association

Interview - 04/08/2017

2.1

Austria

Austrian Industry Association and margarine producer

Industry association / Food business operator

Interview - 04/08/2017

2.1

Canada

Baking Industry Association

Industry association

Interview - 11/07/2017

2.1

Canada

Former official at Public Health Canada

National Competent Authority

Interview - 12/07/2017

2.1

Denmark

The Danish Veterinary and Food Administration (1)

National Competent Authority

Interview - 05/07/2017

2.1

Denmark

The Danish Veterinary and Food Administration (2)

National Competent Authority

Interview - 05/07/2017

2.1

Denmark

Food procurement company

Food business operator

Interview - 12/07/2017

2.2

Denmark

The Confederation of Danish Industry

Industry Association

Interview - 13/07/2017

2.2

EU

CEBP (European Confederation of National Bakery
and Confectionery Organisations)

Industry Association

Interview - 06/07/2017

2.1

EU

European Dairy Association (as member of Food Drink Europe)

Industry Association

Email submission received on 10/07/2017

2.1

EU

EPHA

Public Health NGO

Interview - 05/07/2017

2.1

EU

HOTREC

Industry Association

Interview - 05/07/2017

2.1

EU

Food Service Europe

Industry Association

Interview - 03/07/2017

2.1

EU

CAOBISCO

Industry Association

Interview - 30/06/2017 – followed by email submission

2.1

EU

Food Drink Europe

Industry Association

Interview - 28/06/2017

2.1

EU

FEDIOL

Industry Association

Interview - 29/06/2017 – followed by email submission

2.1

EU

IMACE

Industry Association

Interview - 06/07/17 – followed by email submission

2.1

EU

An international food and drink manufacturer (as member of Food Drink Europe)

Food business operator

Email submission received on 14/07/2017

2.1

Germany

German Federation for Food Law and Food Science

Industry Association

Interview - 10/07/2017; Email - 08/08/2017

2.1

Germany

Federal Ministry of Food and Agriculture (BMEL), Unit for residues and contaminants in foodstuffs

National Competent Authority

Interview request was rejected due to lack of capacity

2.1

Hungary

Ministry of Agriculture

National Competent Authority

Unavailable

2.1

Hungary

Ministry of Human Capacities

National Competent Authority

Unavailable

2.1

Latvia

Ministry of Health

National Competent Authority

Some answers provided via email on 30/06/2017

2.1

Latvia

Ministry of Agriculture

National Competent Authority

Some answers provided over the phone on 30/06/2017

2.1

Netherlands

Bakery supplier

Food business operator

Interview - 08/08/2017

2.2

Netherlands

Bakery supplier

Food business operator

Interview - 03/08/2017

2.2

Netherlands

Bakery supplier

Food business operator

Written submission – 28/08/2017

2.2

Netherlands

MVO

Industry association

Telephone conversation – 01/09/2017

2.2

Netherlands

Bakery supplier

Food business operator

Unavailable

2.2

Netherlands

Bakery supplier

Food business operator

Unavailable

2.2

Netherlands

Bakery supplier

Food business operator

Unavailable

2.2

Netherlands

Bakery supplier

Food business operator

Forwarded to other contact

2.2

Netherlands

Bakery supplier

Food business operator

Unavailable

2.2

Netherlands

Bakery supplier

Food business operator

Could not provide information

2.2

Netherlands

Bakery supplier

Food business operator

Unavailable

2.2

Netherlands

VBZ - Baking Industry Association

Industry Association

Unavailable

2.1

Netherlands

NBOV - Baking Industry Association

Industry Association

Unavailable

2.1

Netherlands

NVB - Baking Industry Association

Industry Association

Unavailable

2.1

Poland

National Food and Nutrition Institute (1)

National Competent Authority

Interview - 29/06/2017

2.1

Poland

National Food and Nutrition Institute (2)

National Competent Authority

Interview - 29/06/2017

2.1

Poland

National Food and Nutrition Institute (3)

National Competent Authority

Interview - 24/06/2017

2.1

Poland

Polish Federation of Food Industry

Industry Association

Interview - 10/07/2017

2.2

Poland

Chief Sanitary Inspectorate

National Competent Authority

Interview - 03/07/2017

2.1

Poland

Polish food manufacturer

Food business operator

Not answered

2.2

Spain

FIAB (Spanish Federation of Food and Drink, member of Food Drink Europe)

Industry Association

Email submission received on 14/07/2017

2.2

Switzerland

Swiss Federal Office of Public Health

National Competent Authority

Not answered

2.1

Switzerland

Swiss Federal Food Safety and Veterinary Office FSVO

National Competent Authority

Email submission received 09/08/2017

2.1

UK

Food & Drink Federation

Industry Association

Rejected as information (from ~15 years ago) not retained

2.1

UK

Ministry of Health

National Competent Authority

Rejected as information not retained after new Government

2.1

UK

Food Standards Agency

National Competent Authority

Transferred to Public Health England

2.1

UK

Large food chain operator

Food business operator

Unavailable

2.2

UK

Large food chain operator

Food business operator

Unavailable

2.2

Step/task 2.1: Review of existing literature and data

Step/task 2.2: Interviews

Synthesis

The evidence collected in the country research by ICF was consolidated into a single document for each country. These country case studies are provided in a separate document (Annex 32). They summarize the data collected from the desk research, interviews and targeted follow-ups. The information collected through interviews with EU level business associations is consolidated in Annex 29.

The evidence was also aggregated in a single MS Excel file document that includes, for each type of impact: a list of indicators; the description of the evidence obtained, either quantitative or qualitative; and sources for that evidence. This information has been replicated in Annex 30.

3.Screening of impacts and assessment of significance

The ICF team carried out a screening of impacts and assessment of their significance, in line with the guidance on impact assessment set out in the EC Better Regulation guidelines. All potentially significant impacts were retained for more detailed analysis, while those which are insignificant were discarded. This screening was based on a thorough analysis of the evidence. The outputs of this task in this report appear in Annex 12.

4.Analysis of impacts

Baseline assessment

This task involved qualitative and quantitative analysis to inform specification of the baseline scenario that describes the production and consumption of trans fats in the EU in a context of no additional EU intervention. The work was informed by the baseline scenario of a study completed by the JRC 173 , and the qualitative evidence collected before by ICF.

Analysis of impacts of each option

The assessment of impacts has been carried out by ICF on the basis of a detailed specification of the policy options, developed by ICF in conjunction with the Commission at the start of the study. The options that are compared to the baseline are defined in the main text of this IA report. The impacts of each option were then assessed by ICF.

The estimation of health costs was based on a model developed by the JRC and published in 2016. 174 A number of the assumptions have been modified. To assess impacts on health inequalities, the team used outputs information emerging from the JRC model to then produce a qualitative assessment of impact on health inequalities, informed by the scientific literature and available data.

The original specification of the JRC model is described here, together with a list of the assumptions that were modified and added for this assignment. These assumptions are explained in more detail below.

The model can be used to estimate the impact of EU-level policies that lead to changes in population industrial trans fats intake. It expresses the results in terms of changes in health treatment costs and overall health benefits (measured in disability-adjusted life years). The model considers only coronary artery disease. Other potential benefits of lowering trans fats intake, such as impacts on insulin sensitivity, obesity, diabetes, cancer, or early growth and development, are excluded because of inconsistent evidence and lack of data. As such the impact assessment can be considered to be conservative with respect to achievable health benefits resulting from (fast) industrial trans fats removal from the food supply.

It is a state-transition model (Markov model) built in Excel. The Markov model is used to simulate how people move in yearly cycles through four health states in each of the policy options. The four health states are as follows:

·Well: the state for each individual with no history of coronary heart disease; a person can remain here until death or move to “coronary heart disease”;

·Coronary heart disease: state for individuals who have coronary heart disease move to this state for a maximum of 1 year; from this state, individuals can move either to “History of coronary heart disease” or “Death” but not back to the “Well” state;

·History of coronary heart disease: state for post–acute coronary heart disease individuals; survivors from a “coronary heart disease” state move to this state until death or until they suffer a new coronary heart disease event, in which case they move to the “coronary heart disease” state;

·Death: any individual can move to this state at any time.

The model is applied to the EU population and accounts for all costs and effects applicable or resulting from the policy options over the course of a lifetime (85 years). The current industrial trans fats intake, defined as percentage of total energy intake, used as starting point for the model (“today”) is calculated as a weighted average of data at Member State level collected through existing evidence and a survey.

The JRC chose the 85 years 'life-time horizon' following relevant methodological guidance, such as NICE (UK) or ISPOR (international). The 85 years are slightly above the average life expectancy in the EU. The NICE guidelines (for assessment of alternative health technologies) notes on the appropriate time horizon: "Long enough to reflect all important differences in costs or outcomes between the technologies being compared". Downs et al. 175 reflect on modelling studies' limitations: 'There are several limitations to the assumptions used in many of the modelling studies included in the review that need to be considered. The time horizons used for the models were short, with the exception of the article by Martin-Saborido et al..174 In one study, the deaths averted were only examined for 1 year. Longer time horizons would be more appropriate, because the implementation of a trans fats policy would not result in instantaneous effects on cardio vascular disease, the use of a lifetime approach as was used in the model examining the impacts of trans fats policies in the European Union would likely be more appropriate.'

The model calculates, for each option, coronary heart disease events and mortality in yearly cycles over a period of 85 years. The relative risks for coronary heart disease associated with the different industrial trans fats intakes are based on the calculations in Mozaffarian et al (in which the “pooled multivariable-adjusted relative risks for 2% of total energy intake of trans fats, as an isocaloric replacement for carbohydrate, was 1.23 (95% CI = 1.11–1.37).” This is then applied to the different industrial trans fats intakes to calculate the probability of a coronary heart disease event.

Costs (of policy implementation and healthcare related) and outcomes (expressed in disability-adjusted life years, which measures overall disease burden) are estimated as the population circulates through the model. These are calculated for each policy option and then compared with the baseline. The model applied some simple assumptions to assess the broad scale of costs of public sector interventions, but excluded costs for business. Because of the limited scope and detail of the cost assessment, the model’s capacity to estimate costs of policy implementation was not used in this appraisal and as such this aspect is not discussed further.

Concepts of industrial trans fats -related diseases used in this report, coronary artery disease, coronary heart disease and cardio vascular disease are explained in Annex 6.

For the starting point of the model (“today”) the risk of coronary heart disease is calculated on the basis of hospital discharges and already includes the risks from current industrial trans fats intakes, which are specific according to country, age, and gender. The reduction in coronary heart disease risk linked to industrial trans fats reductions in the following years from “today” is then calculated by using the relative risks above. Subsequently, the resulting disability-adjusted life year are then calculated on the basis of the modelled number of coronary heart disease events and deaths.

Given the uncertainty related to trans fats intake data, the JRC model tests three scenarios for intake in addition to the baseline.

Table 21 industrial trans fats intakes across the baseline and alternative scenarios as considered in the JRC model

Scenarios

EU population current industrial trans fats intake (%E)

Baseline

0.3

Scenario 1

0.15

Scenario 2

0.45

Scenario 3

0.7

The reference case built into the model assumes the highest population trans fats intake over the modelled horizon. JRC assumed that in the absence of EU action industrial trans fats consumption decreases over time and would reach zero in 10 years' time.

The JRC used the model to test scenarios based on a voluntary agreement, mandatory labelling and a legal limit on industrial trans fats content. The details of these scenarios are provided below for comparison to the scenarios tested for the current study (which are explained in the main text of the IA report):

·JRC - Voluntary agreement: This option assumes the creation of a voluntary agreement between the food industry and policy makers across the EU. The model assumes a decrease in industrial trans fats intake which would reach zero in 5 years' time. Costs of the option are related to food inspections to monitor and evaluate the agreement as well as the healthcare costs;

·JRC - Mandatory labelling: This option assumes that the current European legislation on the nutrition declaration on foods (Regulation EU (No) 1169/2011) would be changed to include also the declaration of trans fats content. The measure would apply only to pre-packaged food. The resulting decrease in industrial trans fats intake is slower than in the voluntary agreement case because it would lead to reformulation only in pre-packaged foods. industrial trans fats intake related to pre-packaged food (it is assumed to be 50% of the total population intake) decreases to zero in 3 years' time. Costs of the option are related to information campaigns to increase consumers' understanding of harmful effects of trans fats, as well as the healthcare costs;

·JRC - Legal measure: This option assumes the introduction of legislation at European level that limits the content of industrial trans fats in the food supply. The model assumes that the industrial trans fats intake is completely eliminated after 2 years. Costs of the option are related to food inspections to enforce the legislation as well as the healthcare costs.

For this assignment the JRC model was adapted in the following ways:

·The baseline scenario was developed further to accommodate known uncertainty about the future trend in industrial trans fats intake in the absence of EU action. Three variants of the baseline were specified to represent the spectrum of expected possible trajectories – industrial trans fats intake remaining constant at current levels, a linear decline in industrial trans fats levels to zero over 15 years and an accelerated linear decline to zero over 10 years;

·More conservative assumptions were defined for the impacts of voluntary agreements;

·The assumed impact of a legal limit on industrial trans fats content on industrial trans fats intake was revised from zero in the JRC model to 0.009 % of total energy intake, which corresponds to the average intake in Denmark as of 2014;

·The option of a partly hydrogenated oils ban was added; the modelling of health impacts of the partly hydrogenated oils ban used the JRC modelling assumptions for the legal limit of 2% industrial trans fats content.

Economic impacts have been assessed with a cost model developed in MS Excel in parallel to the JRC model. The analysis provides a quantitative assessment of administrative and compliance costs for business, and administrative costs for public authorities. This, and evidence collected from the consultations, informed a more qualitative assessment of related impacts on consumers, the Internal Market, competitiveness and international trade. Quantitative estimates of the costs borne by SMEs were also made.

The details of the cost assessment methodology are set out in the main text of this IA report and the related Annexes. The analysis involved:

·Estimating the numbers of businesses in relevant subsectors potentially affected by each option;

·Estimating administrative burdens using the Standard Cost Model, by estimating administrative time burdens by business and valuing these at appropriate hourly rates, based on Eurostat labour cost data;

·Estimating the required changes in compliance, including product testing, product reformulation and additional costs of ingredients, informed by data collected through the consultations and literature review, and applying appropriate assumptions where required;

·Estimating administrative burdens on public authorities by estimating and valuing the time and costs involved for policy implementation, monitoring and enforcement, applying the Standard Cost Model;

·Calculating the present value of these costs using a 4%138 discount rate, in order to facilitate comparison with the benefits estimates.

Environmental impacts were examined qualitatively by ICF, drawing on evidence from the literature review. The analysis examined the likely substitutes for partially hydrogenated oils and their relative environmental impacts. A key source was the study for the European Commission undertaken by 3Keel and LMC International which has examined the environmental impact of palm oil. The approach was informed by an interview with the contractors for that study, which highlighted the significant uncertainties and complexities inherent in the assessment of the environmental impacts of palm oil and alternatives, including soy. For these reasons it has been difficult to draw firm conclusions about the environmental impacts of the options.

Analysis of impacts of combined options

An analysis of the following combinations of options was performed:

·Options 2 and 1b

·Options 2 and 3b

·Options 2 and 1a or 3a

The analysis has focused on identifying both additive and non-additive combined impacts. It was informed by evidence collected by ICF during the data collection phase.

5. Validation consultation

Targeted stakeholder consultation was undertaken by ICF in order to triangulate findings / validate the data gathered on the impacts of the different policy options.

Online consultations

ICF undertook consultations of stakeholder groups with the aim of validating the provisional findings. This used an online questionnaire structured around the key data, estimates, and findings that were established in the earlier stages of the work. This maximised our ability to validate the data and triangulate the findings from the impact assessment with a wide range of stakeholders. This did not duplicate in any way the public consultation that was undertaken separately, as respondents were not asked to provide the range of their views on this issue. Rather, the use of closed questions enabled ascertaining the validity of key elements of the analysis.

Content of the survey instrument

An online consultation questionnaire was prepared by ICF in conjunction with the Commission and the ISG. The survey instrument is given in Annex 31.

The consultation built on the results generated through the data review and collection, and the impact screening and impact assessment. Consultees were presented with the key data points, estimates, assumptions and findings from these tasks, and were asked to provide their feedback. The consultation by ICF was mostly made of closed questions, with some options for comments (for example, in case of consultee’s disagreement with research findings).

The first part of the consultation posed general questions on current and predicted industrial trans fats use under different policy options and the definition of industrial trans fats. The next part of the consultation gave respondents a choice between six separate sections, allowing them to answer as many as were relevant, depending on their area of expertise. The available sections were:

·Health impacts

·Economic impacts

·Consumer impacts

·Internal Market and trade impacts

·Impacts on SMEs and

·Environmental impacts

Selection of consultees – overall approach

To validate the data gathered before by ICF, ICF distributed the consultation tool to:

·Consumer and health NGOs;

·Food business operators representative associations, both at an EU and national level;

·National competent authorities; and

·Experts with relevant expertise to comment on the different types of impact assessed.

The consultation was provided in English. Responses were accepted in other languages.

A total of 85 completed questionnaires were received. The table below shows the composition of the respondent group.

Table 22 Validation consultation – Demographics

Stakeholder group

Number of consultees

Consumer organisations

2

Food manufacturing/ processing business

12

Food sector association

26

Food service business

2

Public authorities

6

Public health organisations

7

Academia

2

International organisations

1

As Table 23 shows, representatives from the business sector belonged to various sectors potentially affected by the measures.

Table 23 Sectors represented among food industry consultees

Sector

Number of consultees

Chocolates / confectionery

2

Dairy products

7

Fresh cakes / pastries / bakery products

3

Ingredients for the food sector

4

Margarines and spreads

1

Multi-category / all food and drink

7

Oil and fats

5

Other (please specify)

9

Restaurants / food services

3

Snacks

1

Soups / sauces / condiments

2

Of all individual businesses who contributed to the validation consultation of ICF (n=14), 9 were large businesses, and 5 SMEs.

Analysis

The data were anonymised and aggregated by ICF. The responses were assessed in detail to evaluate whether the findings from the online consultation should lead to revisions of the analysis of impacts, depending on how consultees evaluated the assumptions and the estimates used in the analysis. Their assessment of the implications of the consultation was then shared with the project management team, for critical evaluation and quality assurance purposes.

Overall the results from the consultation have confirmed the appropriateness of the assumptions and estimates made by the ICF study team, while they have helped to qualify the baseline scenario.

6.Strengths and limitations of the method

The main limitations from the ICF study that is the main basis for this IA report are linked to the data to support the impact assessment. In spite of extensive efforts deployed to collect relevant data from the EU and beyond, a number of gaps remain. There were a number of specific points for which no hard evidence could be found by ICF. In addition, limited data were available on SMEs and from businesses in the non-pre-packed food sector though business organisations representing those firms did contribute direct evidence through interviews and responses to the validation consultation. These gaps have been addressed by the study team of ICF by drawing reasonable assumptions. These assumptions have been tested through the validation consultation, which helped provide elements to confirm or sometimes adjust these assumptions.

The study of ICF is showing the order of magnitude of the impacts, who is impacted, and the distribution of the impacts, in a manner that delivers a very clear message: the relative impact of the different options is clearly demonstrated. The results appear to be robust in the face of the uncertainty against the baseline. Adjustments to data points that are uncertain do not change the overall findings, which demonstrate the robustness of the overall ICF study.

With regard to the validity and reliability of modelling results, a number of uncertainties need to be highlighted. Such uncertainties are linked to the modelling exercise of the health impact assessments and estimates provided should not give a false impression of scientific accuracy in this respect.

There are uncertainties on a variety of factors that may contribute to health impacts, as discussed in the original JRC study. Those refer to trans fats intake (and notably to the contribution of ruminant trans fats intake in determining overall health impacts), variability between countries, and various data gaps such as coronary artery disease events.

The relative risk estimates from Mozzafarian et al 176 that were used by the JRC for the model does factor in all substitution effects. Factored in to a certain degree are the Relative Risks (RR) for replacement of trans fats with carbohydrates, with saturated fats, with monounsaturated fats and with polyunsaturated fats; the reality is a mix of all and this is reflected in the range of RR. However, not factored in in the model (inter alia, due to lack of evidence) are more complex dietary substitution effects where dietary patterns change due to implementation of policy options.

The JRC considered ruminant trans fats intake (and more general ruminant fat intake) as constant between reference scenario and with policy options; for no action, voluntary and legal trans fats limits or partly hydrogenated oils bans, this assumption is, in the JRC’s view, defendable as these do not consider ruminant trans fats sources; for the mandatory labelling that includes all trans fats sources, this assumption could hold less true, as consumers could (more than currently, where this is only recommended by several Member States) opt for low fat dairy or non-ruminant meat and/or could reduce dairy intake – such a dietary change could come with a range of effects, positive or negative. Certainly, all those considerations are beyond the model and beyond the available evidence.

The JRC model that was used also by ICF clearly underestimates health risks due to trans fats intake due to lack of evidence; Mozzafarian mentions that beyond negative effects on blood lipids, trans fats has also been shown to increase inflammation, which is clearly linked to a range of degenerative diseases, as well as endothelial dysfunction.

Overall, there are limitations of the ICF modelling exercise due to the assumptions needed, data scarcity linked to intakes and future projections, paucity of evidence related to other trans fats health effects, possibilities to model more complex dietary changes making strong simplification necessary. The main purpose of the model was to support with modelling the relative comparison of the viable policy options against a reference of no policy; this outcome of a legal limit performing better under this specific framing of a public health economic evaluation in terms of health benefits and cost-effectiveness has been shown to be robust in sensitivity analyses; the finding is also in line with similar modelling efforts (in support of the US FDA partly hydrogenated oils ban; for the UK) and across shorter time spans (e.g., 20 years) and using slightly different approaches. Nevertheless, the relative findings are based on past experience and suggestions by stakeholders in various surveys conducted over the past years how the future trans fats intakes might develop under the alternative policy scenarios – this remains inevitably uncertain, and events, such as a negative image of palm oil (a key substitute for partly hydrogenated oils used by some food business operator sectors) as an economic vegetable oil source could lead to incentives of re-introducing partly hydrogenated oils in case industrial trans fats use is not restricted.

7.Discussion of information gaps and uncertainties

Uncertainties and gaps have been made explicit through the ICF document and also in this IA report in the main text and related Annexes. Sensitivity tests have been used to explore the implications of differences in the baseline scenario for health benefits, and of mis-specification of current mean intake.

The health impact modelling of ICF, which used a model developed by the JRC, is conducted at an EU population level rather than Member State level, and with EU-level cost factors (e.g. on healthcare care and productivity losses).

The country research of ICF did not identify robust ex post appraisals of the cost of familiarisation with legislative requirements or reformulation costs from countries that have already acted robustly to reduce industrial trans fats intake. Some information on changes in specific firms or sectors was identified.

There is uncertainty about some key parameters of several options, notably:

·The precise impact of a partly hydrogenated oils ban on industrial trans fats intake. In this analysis the impact has been assumed to equivalent to that of a 2% limit on industrial trans fats content, as specified in the JRC model;

·The extent of reformulation of food products and how that may vary depending on whether the measure consists in a limit on industrial trans fats content or a ban on partly hydrogenated oils;

·The costs of introducing a new testing regime for partly hydrogenated oils and of agreeing a definition of partly hydrogenated oils at EU level (options 3a and 3b);

·The potential level of participation of food business operators in voluntary agreements (options 1a, 3a) and the impact of that participation on intake (whether the firms that participate make a proportionate contribution to residual industrial trans fats intake at the time the agreement starts);

·The extent to which modifying the nutrient declaration to include industrial trans fats content will lead to changes in consumer behaviour;

·The scale and cost of the consumer awareness-raising campaigns required to support the labelling option and the prospects of Member State authorities providing such funding at a time of public spending restraint;

·Where the unit label adjustment costs developed in previous research studies accurately estimate the costs of an adjustment to the nutrient declaration;

·The number of food products on the EU market and thus the number of labels to be changed.

ICF expressed the view that resolving these uncertainties would lead to some movement in the figures but not change the fundamental results relating to:

·The overall balance between benefits and costs of the legal options; and

·The relative performance of different options on measures of effectiveness and efficiency.



ANNEX 5: Trans fats – a general presentation

Trans fats are a particular type of unsaturated fatty acids and are defined, in Regulation (EU) No 1169/2011, as 'fatty acids with at least one non-conjugated (namely interrupted by at least one methylene group) carbon-carbon double bond in the trans configuration'. 177

As explained by the European Food Safety Authority (EFSA), 'Fatty acids can be classified according to their number of double bonds. Saturated fatty acids (SFA) have no double bonds, while monounsaturated fatty acids (MUFA) have one double bond and polyunsaturated fatty acids (PUFA) have two or more double bonds (…). These double bonds can have either the cis or trans configuration. Cis means that the two carbon (C)-atoms (or hydrogen (H)-atoms) adjacent to the double bound point into the same direction, while in the trans configuration the two carbon atoms point into opposite directions'. 178 . The figure below, edited from the EFSA's Scientific Opinion mentioned above, shows the difference between a fatty acid in its Cis form (oleic acid) and one in trans form (elaidic acid).

Figure 5 Structure of oleic acid and elaidic acid (Edited from EFSA (2004))

Most unsaturated fatty acids in the diet have the cis configuration, but trans fats are also present. 179  

Trans fats can be produced industrially (industrial trans fats) or can be naturally present in food products derived from ruminant animals (ruminant trans fats).

As far as industrial trans fats are concerned, they are primarily present in the diet as partly hydrogenated oils, which generally contain saturated and unsaturated fats, and among them trans fats in variable proportions (up to more than 50% of the total fat content of the food). The hydrogenation process (i.e. the addition of hydrogen atoms) turns oils into semi-solid and solid fats thus giving them qualities desired by the food processing industry (e.g. increased tolerance against repeated heating, prolonged product shelf-life, sensory aspects) 180 at costs that are cheaper than the usual alternatives (e.g. solid animal fat like butter). Partial hydrogenation of oils is largely in use since the middle of the 20th century, however, there is no precise, legal definition for the chemical process. In accordance with Regulation (EC) No 1169/2011 on food information to consumers 181 , hydrogenated oils used as ingredients for foods must be accompanied by the expression 'fully hydrogenated' or "partly hydrogenated' in the ingredient list.

Industrial trans fats can also be the result of refining of certain unsaturated oils or of heating and frying of oils at too high temperatures (> 220°C). 182 Industrial trans fats can be found at varying amounts in several food products including certain bakery products (e.g. biscuits and pastries), vegetable fats (e.g. margarines and spreads), confectionary (fillings and creams) and some fried foods (e.g. potato crisps).

Examples of products found to contain trans fats in considerable amounts in Member States, generally of industrial origin, are frying fat also for industrial use, stick margarines, margarine used to produce pastry products, bakery products, biscuits, wafers, confectionary products including those with cocoa coatings such as covered puffed rice, soups and sauces. 183

Reduction of industrial trans fats in foods and thereby reduction of excessive intakes of trans fats by consumers is possible by carefully selecting the type of ingredients, for example by substituting partially hydrogenated oils with alternatives.

Ruminant trans fats, on the other hand, are generated in the rumen of animals by gut bacteria, absorbed and utilised by the animals. Therefore, ruminant trans fats are naturally present in the fat part of food products derived from ruminant animals such as dairy products or meat from cattle, sheep or goat, at levels most commonly around 3% and ranging from 2 to 9% of the total fat content of the food. Trans fats from ruminant sources, contribute between 0.3 and 0.8 % of energy intake, depending on dietary habits 184 .

Trans fats in foods can be identified and quantified using different validated methods that have different strengths and weaknesses (e.g. in terms of reproducibility, precision, time, costs). Further research is underway to improve how to distinguish between ruminant and industrial trans fats in the same product. 185

Some complexity arises when a product contains both industrial and ruminant trans fats (e.g. milk fat and partly hydrogenated soybean oil).

In Denmark, the approach followed to estimate the amount of industrial trans fats in these cases is to

·First, estimate the amount of milk fat present in the food based on its butyric acid content (C4:0), butyric acid occurs uniquely in milk fat;

·second, using this to estimate the amount of ruminant trans fats in the food based on an assumption about the fraction of milk fat that is trans fats;

·third subtracting the ruminant trans fats figure from the total amount of trans fats to derive an estimate of the industrial trans fats content. 186

The JRC carried out a literature review 187 confirming the complexity of the matter. The analytical method based on butyric acid is presented as a valid way to corroborate another method based on a different marker (9c, 11t-18:2 a unique marker to indicate the presence of ruminant fat). Limitations of the existing methodologies were also discussed. JRC is currently carrying out work in order to develop a reliable methodology to determine levels of industrial trans fats in food.



ANNEX 6: Trans fats consumption and its negative impact on health and intake recommendations

Trans fats consumption and its negative impact on health

There is scientific consensus that trans fats intake has a negative effect on human health and, more specifically, that trans fats intake is a risk factor for the development of coronary heart disease. 188

As noted by EFSA, "consumption of diets containing trans-monounsaturated fatty acids (…) increases blood total and LDL cholesterol concentrations in a dose-dependent manner, compared with consumption of diets containing cis-monounsaturated fatty acids or cis-polyunsaturated fatty acids. Consumption of diets containing trans-monounsaturated fatty acids also results in reduced blood HDL cholesterol concentrations and increases the total cholesterol to HDL cholesterol ratio. (…) Prospective cohort studies show a consistent relationship between higher intakes of trans fatty acids and increased risk of coronary heart disease"5.

It has also been argued that the consumption of trans fats increases the risk of heart disease more than any other macronutrient compared on a per-calorie basis and that the risk of dying from heart disease is 20-32% higher when consuming 2% of the daily energy intake from trans fats instead of consuming the same energy amount from carbohydrates, saturated fatty acids, cis monounsaturated fatty acids and cis polyunsaturated fatty acids. 189

There is still a scientific debate whether consumption of ruminant trans fats has similar effects for human health than that of industrial trans fats. In this context, the European Food Safety Authority noted that 'The available evidence indicates that trans fatty acids from ruminant sources have adverse effects on blood lipids and lipoproteins similar to those from industrial sources when consumed in equal amounts'. At the same time, 'The available evidence is insufficient to establish whether there is a difference between ruminant and industrial trans fatty acids consumed in equivalent amounts on the risk of coronary heart disease'. 190 Recent draft guidance from the WHO on trans fats intakes for adults and children 191   192 clarify that the definition of trans fats to be reduced includes both those from industrial sources and from ruminant sources.

High trans fats intake is one of the risk factors for developing coronary heart disease5 37, which is the single leading cause of mortality in the EU. 193 In the EU, coronary heart disease accounted for some 623 thousand deaths in 2014 or 12,6% of overall mortality with a wide variability observed among Member States. 194 Figure 6 illustrates those differences.

Figure 6 Deaths from coronary artery disease (also called ischaemic heart diseases) 195 — standardised death rate, 2014 (per 100 000 inhabitants) (source: Eurostat)

Cardio vascular disease, including coronary heart disease, imposes substantial health burdens in the EU.

Costs associated with coronary heart disease (healthcare costs, opportunity costs of informal care from relatives of the person suffering from coronary heart disease and productivity losses associated with premature death or morbidity) can be estimated to amount in 2014 to more than €60 billion (€60 247 million) or 0.43 % of the EU Gross Domestic Product. Healthcare costs of coronary heart disease can be estimated to run up to more than €30 billion (€30 824 million), 0.22 % of the EU Gross Domestic Product or 2.33 % of total healthcare costs. 196

According to the ICF study, using European Heart Network cardio vascular disease statistics published in 2017, it is estimated that 49 million people live with cardio vascular disease and that the condition imposes costs of more than €200 billion each year in the EU. 197

It is of course difficult to quantify the exact impact of trans fats intakes on health at EU level (i.e. what percentage of coronary heart disease-caused deaths is caused by trans fats intakes) and the subsequent costs for the society, taking into account that coronary heart disease is linked to multiple risk factors and that limited data is available for trans fats intakes in the entire EU (see section 2.1 and Annex 9).

In order to potentially have an indication, however, it can be noted that in 2014, the standardised death rate for coronary heart disease in the EU-28 was 126 deaths per 100 000 inhabitants. 198 The introduction in Denmark of legal limits for industrial trans fats in foods (see Annex 8), which nearly eliminated those trans fats from the Danish food supply, has been estimated to reduce mortality attributable to Coronary Heart Disease on average by about 26.5 deaths per 100 000 people per year 199 in the three years after the implementation of the legal limit.

As coronary heart disease creates significant costs for Member States' healthcare systems and more generally for their economies, excessive trans fats intake should be reduced in the diet of consumers. In this context, initiatives to reduce intakes of trans fats in the population were launched in different EU Member States with the support of stakeholders both on the consumers' side and on the industry's side.

Intake recommendations

For the reason mentioned above, and taking into account that trans fats are not synthesised by the human body and are not required in the diet, the European Food Safety Authority and the World Health Organization recommend that their consumption is limited or minimised.

The European Food Safety Authority recommends that 'trans fatty acids intakes should be as low as is possible within the context of a nutritionally adequate diet'. 200 This recommendation takes into account the fact that trans fats are intrinsically contained in several fats and oils that are also important sources of essential fatty acids and other nutrients in the diet. Thus, there is a limit to which the intake of trans fats, can be lowered without compromising adequacy of intake of essential nutrients. Ruminant foods that contribute ruminant trans fats are sources of some essential nutrients. Most public health authorities in Member States recommend that fat intake from animal source should be limited, mostly due to their high content of saturated fat, which is consumed in excess in the most EU Member States.5 Ruminant trans fats sources contribute between 0.3 and 0.8% of the daily energy intake depending on dietary habits across Europe. 201 Section 2.1 and Annex 9 provide additional information on trans fats intakes in the population. The most recent data suggest that in 2014 the average industrial trans fats intake in Denmark was 0.009 % of energy intake 202 , this very low level of intake was achieved after the introduction of a legal limit for industrial trans fats of 2 % per 100 g fat in foods sold to the final consumer in Denmark. This very low level with regard to industrial trans fat intake could be considered as 'as low as possible'.

The World Health Organisation recommends that less than 1 % of total energy intake should come from consuming trans fats 203 , which translates to less than 2.2 g/day with a 2,000-calorie diet. The 2000-calorie diet is the reference intake set in EU food information legislation for labelling purposes 204 , in line with Codex Alimentarius guidance. WHO published new draft guidelines on trans fats intakes for adults and children on 4 May 2018 while launching a OPC calling for comments. 205   206 In the draft version, trans fats intakes are recommended to be less than 1 % of energy intake, in line with the existing recommendation. While the proportions are the same, the original guidelines are based on 'population nutrient intake goals', meaning they were recommended averages for large groups. The draft guidelines would apply to individuals, according to information provided by WHO officials to the media on a conference call. 207 Furthermore, the draft guidelines also clarify that the definition of trans fats includes both those from industrial sources and from animals. Also, the update includes a recommendation to replace trans fats with polyunsaturated fats.

A note on concepts of trans fats-related diseases used in this impact assessment

As it builds on a number of different studies, this impact assessment makes reference to three different concepts describing diseases linked to trans fats intake: coronary artery disease, coronary heart disease and cardio vascular disease. High cholesterol levels (which may result from high industrial trans fats intake) are a risk factor for both coronary heart disease and coronary artery disease. The two terms are often used interchangeably. However, coronary artery disease can be considered as an antecedent of coronary heart disease, in that the build-up of plaque within coronary arteries (coronary heart disease) leads to the condition called coronary heart disease. Cardio vascular disease is a broader term to describe a range of diseases that affect the heart, including heart failure (which can be caused by coronary heart disease, among other factors), arrhythmia (abnormal heart beat) and heart valve problems. Studies have explored the impact of industrial trans fats intake on either coronary heart disease (e.g. Martin-Saborido et al. 201632), coronary heart disease (e.g. Mozaffarian et al. 2006 208 ) or cardio vascular disease (e.g. Restrepo and Rieger 201644).



ANNEX 7: Health effects of ruminant versus industrial trans fats and the potential to limit the associated health problem by addressing their intake

The European Food Safety Authority concluded in 2010 that the available evidence indicates that ruminant trans fats have adverse effects on blood lipids and lipoproteins similar to those from industrial sources when consumed in equal amounts 209 . The European Food Safety Authority further concluded that there is insufficient evidence to establish whether there is any difference in the risk of heart disease between ruminant and industrial trans fats consumed in equivalent amounts. The result of the observational study might reflect a true difference between sources or might be a function of consumption levels. 210

The WHO published new draft guidelines on trans fats intakes for adults and children while launching a OPC calling for comments on 4 May 2018. 211   212 The new draft guidelines clarify that the definition of trans fats to be reduced includes both those from industrial sources and from ruminant sources.

Reduction of industrial trans fats in foods is possible by changing the type of ingredients used in their preparation. An example is the substitution of partly hydrogenated oils with alternatives. Evidence from Denmark 213  demonstrates how, after legislation imposed a limit on industrial trans fats, industrial trans fats were reduced or eliminated from most products that originally had a high industrial trans fats content. Examples are French fries, microwavable popcorn and various bakery products. Industrial trans fats now make an insignificant contribution to overall intake of trans fats in Denmark.

The fat composition of ruminant fats with regard to their trans fats content is not modifiable to a significant degree, therefore their intake cannot totally be avoided when consuming ruminant derived foods that are important in the diet of the EU population. Also, ruminant trans fats sources generally contribute in a limited way to high total trans fats intake. Ruminant fats contain approximately 3 % trans fats and between 40 to 60 % of saturated fats, generally the proportions of those fats are fixed. Both types of fats increase the risk of dying from heart disease. The risk associated with trans fats is higher as compared to saturated fats. However, in order to address excessive intakes of saturated fats national nutrition policies aim to reduce the population intake of ruminant fats in the diet (for example with recommendation to prefer low fat versions of dairy products) and address automatically also the problem of ruminant trans fats. The Commission supports national efforts in this respect as part of the initiatives with the High Level Group on Nutrition and Physical Activity, a group composed of EU (and EFTA) government representatives led by the European Commission. 214   215 National policies to reduce saturated fat intake are in line with scientific advice of the European Food Safety Authority5, that concluded that saturated fat intake should be as low as is possible within the context of a nutritionally adequate diet.



ANNEX 8: Current status of EU and national measures addressing the trans fats problem and consumer knowledge regarding trans fats

Overview of existing policies in EU Member States

In line with the intake recommendations described in Annex 7, initiatives to reduce the consumption of trans fats are in place in many countries both within and outside the EU. In general, these initiatives focus on industrial trans fats, because the proportion of trans fats in those fat sources can be modified whereas the proportion of trans fats in ruminant fats is relatively stable. In addition, while the levels of industrial trans fats in foods can be as high as 50 % of total fat content, those of ruminant trans fats are around 3 % of the total fat content (normally below 6 %) and ruminant trans fats are consumed at relatively low levels in most populations .

There is currently no EU legislation regulating the content of trans fats in food products, with the exception of the legislation applicable to infant formula and follow-on formula and olive oil. There are no specific labelling requirements either, apart from the obligation to indicate on label whether refined fats/oils present in the product are partly hydrogenated (this might allow to infer that the product contains trans fats, but it is not required or possible to label the exact trans fats amount).

Table 24 Overview of existing policies in EU Member States

Policy/ measure

Country

Voluntary – self regulation

BE, DE, NL, PL, UK, EL

Voluntary – dietary recommendation

BG, MT, SK, UK, FI

Voluntary – composition criteria for specific products

EE

Legislation limiting trans fats content of foodstuffs*

AT, DK, LV, HU, LT, SI, RO 216

Legislation limiting trans fats content of foodstuffs which voluntarily bear a specific nutrition claim (keyhole)

SE

Other legislation (e.g. limits on specific product categories)

ES, EL, FI

Notes: * All legal acts apply to products sold to final consumer. Ruminant trans fats are exempt in all cases. FI presence in two categories matches source document.

Source: EC, 2010. Report from the Commission to the European Parliament and the Council regarding trans fats in foods and in the overall diet of the Union population. SWD(2015) 268 final, updated in May 2018.

Table 24 24 provides an overview of existing national measures in EU Member States that were in force at the point of completing this IA. Some Member States (i.e. AT, DK, LV, HU, LT, SI) have implemented or adopted legislation on industrial trans fats content of foodstuffs. In other Member States voluntary measures can be observed, either industry self-regulation (e.g. BE, DE, NL, PL, UK, EL), voluntary dietary recommendations (e.g. BG, MT, SK, UK, FI) or voluntary composition criteria for specific products (e.g. EE). Romania transmitted to the Commission draft legislation to impose a legal limit to industrial trans fats content in food.216

Member State legislation differs in approach. E.g., Austrian/ Hungarian legislation established a maximum content of trans fats at 10 % of the total fat content where the total fat content is less than 3 % of the product, and at 4 % where the total fat content is between 3 % and 20 % of the product.

A more complete overview can be found in Table 25 below:

Table 25 Overview of Member State measures

Scope

Restriction

Derogations

Denmark (2003)

Industrial trans fats, products sold to final consumers

< 2g trans fats in 100 g total fat 217

(not applicable anymore)

Austria
(2009)

Industrial trans fats

D1: In processed foods with less than 20% total fat content, industrial trans fats up to 4%

D2: In processed foods with less than 3% total fat content, Industrial trans fats up to 10%

Hungary
(2013)

Industrial trans fats, products sold to final consumers

D1, D2

Latvia
(2015)

Industrial trans fats

D1

Slovenia
(2017)

Industrial trans fats

./,

Romania
(2017)

Industrial TFAs

./.

Lithuania
(2017)

Industrial TFAs

D1

D1: derogation 1        D2: derogation 2

A very recently notified draft national measure 218 proposes to address the trans fats problem by banning the use of trans fats containing hydrogenated oils as an ingredient for a special type of food products.

In the consultation that preceded the adoption of the Commission's report on trans fats, several national competent authorities indicated that they were prepared to proceed with national measures in the absence of EU action. 219 Some food business operators have taken voluntary action to reduce or eliminate industrial trans fats from their products in action orchestrated at EU level by representative organisations (such as CAOBISCO and FEDIOL). In Belgium, Germany, the Netherlands, Poland, the UK and Greece, voluntary self-regulation measures have been agreed with the food industry.

EU legislation

EU legislation sets legal limits for trans fats in infant formula and follow-on formula (3 % of the total fat content of the food, to allow for the use of milk, which naturally contains ruminant trans fats, as a source of fat).

Regulation (EU) No 1169/2011 on the provision of food information to consumers requires since 13 December 2014 to specify in the ingredients list of all pre-packed foods (non pre-packed foods are not covered by this provision) whether refined fats/oils are partly hydrogenated. The Regulation however does not require the indication of the exact trans fats content of foods in the nutrition declaration. It is important to note in this context that Regulation (EU) No 1169/2011 also prohibits operators from declaring the trans fats content of foods on nutrition labels on a voluntary basis. It was indeed considered that this possibility would be used as a marketing tool by some operators only and lead to consumers' confusion.

Legal measures outside the EU

Legal measures limiting the content of industrial trans fats in foods exist also outside the EU (e.g. in Switzerland, Iceland, Norway as well as in the US, where the Food and Drug Administration concluded in 2015 that partially hydrogenated oils, the primary dietary source of industrial trans fats, are no longer to be considered as 'generally recognized as safe' (GRAS) for use in food). The U.S. Government introduced a ban on partly hydrogenated oils because they are the primary dietary source of industrial trans fats in the USA. Although all refined edible oils contain some industrial trans fats as an unintentional by-product of their manufacturing process, industrial trans fats are an integral component of partly hydrogenated oils and are purposely produced in these oils to affect the properties of the oil and the characteristics of the food to which they are added. 220  For the purposes of this declaratory order, the Food and Drug Administration is defining partly hydrogenated oils as those fats and oils that have been hydrogenated, but not to complete or near complete saturation, and with an iodine value greater than 4. Use of partly hydrogenated oils in foods will be phased out in the U.S. market by June 2018. The US performed analysed the cost and benefits of the legal measure. 221  

In 2017, Canada adopted a measure prohibiting the use of partly hydrogenated oils in foods by adding them to the list of contaminants and other adulterating substances in food, a decision which was confirmed in February 2018 by the adaptation of other rules. 222

Consumer knowledge regarding trans fats

In 2013 and 2014, a study on the impact of food information on consumers' decision making was carried out, including substantial research on consumer knowledge about trans fats and partly and fully hydrogenated oil and the potential impact of a mandatory trans fats labelling on consumers' decision making. 223

The online ‘laboratory’ experiments were conducted in eight member states (United Kingdom, France, Germany, Italy, Spain, Finland, Poland, and Romania) in September 2013, addressed to a total of 6337 respondents (number of responses are given in Figure 8). A questionnaire with online panellists included the simulation of various shopping and consumption scenarios to collect relevant choice observations on various policy areas, including trans fats.

The study identified potential awareness drivers for decision making of consumers, as one key requirement for making healthier choices in the tested scenarios is a minimum level of awareness and the correct evaluation of the various fat types. This data was collected by the contractor performing the study, TNS, before the experimental part of the survey with the following results:

·Almost everyone had heard of saturated fat previously and around half correctly classified it as something unhealthy;

·Compared to that, the general awareness of all of the other fat types (trans fats, partly hydrogenated oil, fully hydrogenated oil) is significantly lower. Around 30 % claim to have never heard of them. Amongst those aware of each type of fat, only around half were able to judge whether it is something healthy or unhealthy;

·Overall, trans fat seems to have a more unhealthy image than partly hydrogenated oils or fully hydrogenated oils;

·Fully hydrogenated oil seems to have a slightly unhealthier image than partly hydrogenated oils.

Figure 7 Awareness of fat types

Figure 8 Evaluation of fat types


ANNEX 9: Additional information on trans fats intakes in the population and presence in foods

Data presented in this Annex is extracted from a JRC report published in 2014 with data collected before this year 224 .

Trans fats presence in foods in Europe

Data contained in 13 studies collected by JRC are analysed in detail in Table 21. These studies are national surveys, national reports, local surveys, original studies or market basket surveys providing estimated per capita exposure to trans fats. Not all studies report intakes of the same population groups and not all have provided information by gender and age groups. It is important to note the many differences between the studies considered and the limitations these differences entail. Importantly, the results presented below reflect only the data on the trans fats intake of the population groups analysed in the studies considered here and cannot be seen as representative of the European trans fats intake.

Figure 9 Availability of data on trans fats consumption/intakes in the EU28.

Red: Not representative country sample

Blue: Representative country sample (wide age range)

Violet: Representative country sample (narrow age range)

grey: no data available                

Table 26 provides an overview of mean and median trans fats intakes (trans fats percent of energy intake (E%) and trans fats g per day) by gender and age when possible. Among the population groups analysed here, male and female Croatian University students aged 18 to 30 years, Swedish boys aged 8 and 11 years respectively, Spanish males and females aged 18 to 30 years, British male and female participants of the Low Income and Nutritional Survey, and French females aged more than 55 and between 3 and 10 years, all have intake average values above the 1 % of energy intake. When the revised WHO recommendation is finally published in its current draft form, the analysis has to be performed again to assess the magnitude of the population that has intakes at or above 1 % of energy intake. The highest median trans fats intakes as a fraction of energy are observed in British male and female participants of the Low Income and Nutritional Survey, followed by Swedish males and females of all ages who also have the highest trans fats intakes in grams per day together with German males (data from 2013).

Table 26 trans fats intake of various population groups as reported in the thirteen studies analysed

Country

Study

Gender

Age or
age range (yrs)

Mean TFA
E%

Median TFA
E%

Mean TFA
(g/day)

Austria

Elmadfa et al. 2008 ( 71 )

M/F

14-36

0.39

0.23

0.97

Finland

Patury et al. 2008 ( 72 )

M

25-64

0.4

 

1.1

 

 

M

65-74

0.4

0.8

 

 

F

25-64

0.4

0.8

 

 

F

65-74

0.4

0.6

 

Kyttälä P et al. 2008 ( 73 )

F

1

0.3

0.2

0.3

 

 

F

2

0.4

0.5

0.5

 

 

F

3

0.4

0.6

0.6

 

 

F

4

0.5

0.6

0.7

 

 

F

6

0.5

0.7

0.8

 

 

M

1

0.2

0.2

0.3

 

 

M

2

0.4

0.5

0.5

 

 

M

3

0.4

0.6

0.6

 

 

M

4

0.5

0.6

0.7

 

 

M

6

0.5

0.7

0.8

France

Afssa 2009 ( 74 )

M

18-34

0.93

0.95

2.66

 

 

M

35-54

0.94

0.94

2.67

 

 

M

55

0.96

0.94

2.56

 

 

F

18-34

0.99

0.99

2.03

 

 

F

35-54

0.97

0.95

2.03

 

 

F

>55

1

0.99

2.02

 

 

M

3-10

0.99

0.98

1.92

 

 

M

11-14

0.93

0.91

2.11

 

 

M

15-17

0.91

0.87

2.15

 

 

F

3-10

1.02

0.99

1.77

 

 

F

11-14

0.96

0.96

1.86

 

 

F

15-17

0.93

0.9

1.71

 

 

M/F

18+

1

 

2.3

 

 

M/F

<18

0.8

1.9

Netherlands

van Rossum et al. 20011 ( 76 )

M

7-8

 

0.5

1.1

 

 

F

7-8

 

0.5

1.2

 

 

M

9-13

 

0.5

1.3

 

 

F

9-13

 

0.5

1.2

 

 

M

14-18

 

0.5

1.4

 

 

F

14-18

 

0.5

1.2

 

 

M

19-30

 

0.5

1.5

 

 

F

19-30

 

0.5

1.2

 

 

M

31-50

 

0.5

1.5

 

 

F

31-50

 

0.6

1.2

 

 

M

51-69

 

0.6

1.5

 

 

F

51-69

 

0.6

1.3

 

Ocke et al. 2008 ( 77 )

M

2-3

0.8

0.7

1.2

 

 

F

2-3

0.7

0.7

1.1

 

 

M

4-6

0.8

0.8

1.4

 

 

F

4-6

0.8

0.8

1.4

Spain

Mayneris et al. 2010 ( 78 )

M/F

18-30

1.05

 

 

 

M/F

31-50

0.88

 

 

M/F

51-65

0.79

 

 

M/F

65+

0.61

United Kingdom

Nelson et al. 2007 ( 80 )

M

19-34

1.2

3.1

 

 

M

35-49

1.4

3.1

 

 

M

50-64

1.3

2.7

 

 

M

65+

1.3

2.5

 

 

M

2–10

1.2

2.2

 

 

M

11–18

1.2

3

 

 

F

19-34

1.2

2.1

 

 

F

35-49

1.2

2.1

 

 

F

50-64

1.2

2.1

 

 

F

65+

1.4

2.2

 

 

F

2–10

1.1

1.9

 

 

F

11–18

1.2

2.4

 

Lennox et al. 2013 ( 81 )

M/F

4-6*

0.1

0.1

 

 

M/F

7-9*

0.2

0.2

 

 

M/F

10-11*

0.3

0.3

 

 

M/F

12-18*

0.5

0.6

 

Bates et al. 2011 ( 82 )

M

4–10

0.8

0.7

1.3

 

 

M

11–18

0.7

0.7

1.6

 

 

M

19–64

0.7

0.7

1.8

 

 

M

65+

0.9

0.8

1.9

 

 

F

4–10

0.8

0.7

1.3

 

 

F

11–18

0.7

0.7

1.3

 

 

F

19–64

0.7

0.7

1.3

 

 

F

65+

0.8

0.8

1.4

 

 

M/F

1.5-3

0.7

0.9

 

 

M/F

4–10

0.8

1.3

 

 

M/F

11–18

0.7

1.5

 

 

M/F

19–64

0.7

1.5

 

 

M/F

65+

0.8

1.6

Croatia

Satalic et.al 2007 ( 83 )

M

18-30

1.1

1.2

 

 

F

18-30

1.2

1.1

 

 

M/F

18-30

1.1

Sweden

Barbieri et al. 2006 ( 79 )

F

4

0.9

0.9

1.6

 

 

F

8

0.9

0.9

1.9

 

 

F

11

0.9

0.8

1.8

 

 

M

4

0.9

0.8

1.6

 

 

M

8

1

0.9

2.1

 

 

M

11

1

0.9

2.1

Germany

BfR 2013 ( 75 )

M**

14-80

0.80

0.73

2.3

 

 

F**

14-80

0.74

0.7

1.59

M***

14-80

0.66

0.62

1.9

F***

14-80

0.65

0.61

1.4

SD: standard deviation; E%: percentage of energy; M/F: male/female, yrs: years; TFA: trans fats

*age in months        **data from 2009        ***data from 2013

Trans fats presence in foods in Europe

Examples of products found to contain trans fats in considerable amounts in Member States, generally of industrial origin, are frying fat also for industrial use, stick margarines, margarine used to produce pastry products, bakery products, biscuits, wafers, confectionary products including those with cocoa coatings such as covered puffed rice, soups and sauces.

The data contained in 23 studies analysed by the JRC in 2014 are provided here in detail. These studies are either scientific peer-reviewed articles or national reports. In total, they contain data on the trans fats content of 3333 food products. It should be noted however, that not all studies report trans fats content in a similar manner. For example, some studies discriminate different trans fats isomers while others report on total trans fats content only, some report trans fats content as g trans fats per 100 g total fat while others report g of trans fats per 100 g of food. Therefore, the results below do not always cover data derived from all 3333 food products but rather for which data was available. In few cases the sum of an x number of the same food products was reported as one mean value and as one value is considered in this analysis. It is important to note the many differences between the studies considered here and the limitations these differences entail. Importantly, the results presented below reflect only the data on the food products analysed in the studies considered here and cannot be seen as representative of the properties European food products in general.

Because the individual studies considered in the JRC analysis report food products/groups in different ways, for the purpose of the JRC analysis, these food products were re-assigned to one of the 14 food categories described below 225 . The choice of categories was based on products characteristics e.g. fast-food, retail products as reported in the publication and also reflected groupings used in other reports. Figure 10 shows the outcome of this re-distribution into fourteen different food group categories. The majority of the foods analysed for trans fats presence in the studies considered here are biscuit, bun, cake and pastry products (35%), followed by food products in the categories of fats and oils, convenience, fast food, and bakery products. Dairy products, milk-based desserts, savoury snacks and meat and meat products were also tested albeit less often and are therefore less represented in this analysis.

Figure 10 Distribution of the food products considered in this analysis by fourteen food group categories. The data concerns 3333 food products analysed in 23 different studies.

Percentage of food products (%)

Figure 11 Distribution of trans fats content in the food products included in the analysis (n=1225). The products included are those where the trans fats content was expressed as TFA g/100 g of total fat.

Overall, as can be seen in Figure 11 the trans fats content of the majority of foods analysed is below 2 g of trans fats per 100 g total fat (77% of which is below 0.5 trans fats g per 100 g total fat). However, it must be noted that there are still foods available in the European market with high levels of trans fats

Table 27 provides an overview of the trans fats content values extracted from the 23 studies (detailed data in Table 23). A close analysis of the minimum and maximum values reported clearly show a high variation in the levels of trans fats present in different foods in terms of trans fats content per 100 g of total fat. These values can be as high as 54.00 g of trans fats per 100 g of total fat (a shortening reported in a Polish study), 49.2 g of trans fats per 100 g of total fat (popcorn reported in a Danish study) and 43.93 g of trans fats per 100 g of total fat (microwave popcorn reported in a Swedish study).

Table 27 Mean* trans fatty acid composition of food products (n) sampled in the twenty-three studies analysed

TFA (units as reported in original studies)

n

Minimum

Maximum

Mean*‡

Std.

Deviation

TFA (g/ 100 g total fat)**

2503

0.00

54.00

2.42

5.89

TFA (g/ 100 g food product)

1193

0.00

16.80

1.30

2.96

TFA: trans fats

*The mean was calculated by the authors of this report, and was based on information reported by the authors of the original papers

** For the purposes of this analysis, we have assumed that the terms TFA% of total fat and TFA g per 100g of total fat can be used interchangeably. Hence, such values were merged and are presented in the results’ section under the term 'g TFA per 100 g total fat'. Trans fats values expressed as % of total Fatty Acid Methyl Esters (FAME) were considered as % of total fat or, as above g trans fats per 100g total fat.

‡In a limited number of studies (22), trans fats values were reported as <2g/ 100g total fat, <1g/100g total fat rather than a concrete value. This data has also been included in the analysis as a mean value (i.e. 1 for a reported value of <2 and 0.5 for a reported value of <1).

Table 28 Food products, as reported in 17 studies, with trans fats content of ≥2 g per 100 g of total fat

Country

Study

Food products*

TFA
(g per 100 g of total fat)

Poland

Zbikowska et al. 2011

Shortening 15

54

Denmark

Bysted et al. 2009

Popcorn 1

49.2

Sweden

Mattisson et al. 2011

Micro popcorn (USA) 2466

43.93

Serbia

Kravic et al. 2011

Biscuits 3A

42.5

Sweden

Mattisson et al. 2011

Tofutti creamy smooth 2428

40.31

Serbia

Kravic et al. 2011

Biscuits 4A

40

 

 

Biscuits 9A

39.8

Estonia

Meremäe et al. 2012

Shortening 8

39.5

Sweden

Mattisson et al. 2011

Tofutti cheddar sliced 2429

38.23

Hungary

National Food and Nutrition Institute of Hungary. 2013

Chocolate egg

37.3

Serbia

Kravic et al. 2011

Biscuits 6A

36.9

Hungary

National Food and Nutrition Institute of Hungary. 2013

Other confectionery products12

36.3

 

 

Chocolate egg

36.2

Poland

Zbikowska et al. 2011

Shortening 14

35.6

Estonia

Meremäe et al. 2012

Margarine 6

34.96

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 70

30.2

 

 

Chocolates 19

30.2

 

 

Sweet biscuits, wafers, muffins 47

29.8

Serbia

Kravic et al. 2011

Biscuits 17B

28.6

Hungary

National Food and Nutrition Institute of Hungary. 2013

Fondant, candies 10

27.6

 

 

Fondant, candies 5

27.5

 

 

Sweet biscuits, wafers, muffins 65

27.2

Serbia

Kravic et al. 2011

Biscuits 5A

26.4

Hungary

National Food and Nutrition Institute of Hungary. 2013

Cereals 24

26.2

 

 

Fondant, candies 6

25.8

 

 

Margarines 14

25.3

Serbia

Kravic et al. 2011

Biscuits 2A

24.8

Hungary

National Food and Nutrition Institute of Hungary. 2013

Cereals 25

23.9

Poland

Zbikowska et al. 2011

Shortening 17

23.1

Ireland

Food Safety Authority of Ireland 2008

(96) Dried Gravy

22.5

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 108

21.9

Serbia

Kravic et al. 2011

Biscuits 7A

21.1

Hungary

National Food and Nutrition Institute of Hungary. 2013

Chocolate egg

20.3

 

 

Fondant, candies 11

20.1

 

 

Sweet biscuits, wafers, muffins 90

19.5

 

 

Sweet biscuits, wafers, muffins 110

18.8

 

 

Powder creams and coffees 14

18.8

Ireland

Food Safety Authority of Ireland 2008

(97) Dried Gravy

18.6

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 124

18.2

Turkey

Karabulut et al. 2007

Wheat flour cookie

17.71

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 60

17.2

Poland

Zbikowska et al. 2011

Shortening 16

16.3

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 84

15.7

Serbia

Kravic et al. 2011

Biscuits 8A

14.6

 

 

Biscuits 24C

14.5

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 17

14.1

Sweden

Mattisson et al. 2011

Wheat wholemeal rusks krisprolls 2450

14.1

Austria

Wagner et al. 2008

Instant soups

13.8

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 26

13.6

 

 

Fondant, candies 7

13.4

 

 

Margarines 20

13.1

Serbia

Kravic et al. 2011

Biscuits 19C

12.6

Hungary

National Food and Nutrition Institute of Hungary. 2013

Margarines 48

12.5

 

 

Sweet biscuits, wafers, muffins 78

12.3

 

 

Sweet biscuits, wafers, muffins 91

12.2

 

 

Sweet biscuits, wafers, muffins 38

12.2

Serbia

Kravic et al. 2011

Biscuits 22C

12

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 16

10.9

 

 

Sweet biscuits, wafers, muffins 33

10.9

Ireland

Food Safety Authority of Ireland 2008

(71) Dried Chicken Soup

10.7

 

 

(73) Dried Tomato Soup

10.7

 

 

(75) Dried Chicken & Bacon Soup

10.6

 

 

(72) Dried Beef & Vegetable Soup

10.6

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 28

10.5

 

 

Powder creams and coffees 3

10.5

 

 

Sweet biscuits, wafers, muffins 62

10.4

Ireland

Food Safety Authority of Ireland 2008

(7) Reduced Fat Spread 59%

10.4

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 105

10.3

 

 

Sweet biscuits, wafers, muffins 71

10.1

 

 

Sweet biscuits, wafers, muffins 106

10.1

 

 

Sweet biscuits, wafers, muffins 103

9.9

 

 

Margarines 47

9.7

 

 

Sweet biscuits, wafers, muffins 57

9.7

 

 

Sweet biscuits, wafers, muffins 104

9.6

 

 

Chocolates 14

9.5

 

 

Sweet biscuits, wafers, muffins 29

9.1

Estonia

Meremäe et al. 2012

Blended spread 6

9.08

Hungary

National Food and Nutrition Institute of Hungary. 2013

Margarines 18

9

 

 

Pastry, cakes 64

9

Ireland

Food Safety Authority of Ireland 2008

(22) Fresh Lamb Gigot Chops

9

Denmark

Bysted et al. 2009

frozen potato 2

8.9

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 89

8.7

 

 

Pastry, cakes 72

8.2

 

 

Sweet biscuits, wafers, muffins 10

8

Denmark

Bysted et al. 2009

Cookies 17

8

Serbia

Kravic et al. 2011

Biscuits 13B

8

 

 

Biscuits 23C

8

Austria

Wagner et al. 2008

Industrial margarines

7.83

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 11

7.8

 

 

Margarines 23

7.7

 

 

Sweet biscuits, wafers, muffins 107

7.7

Estonia

Meremäe et al. 2012

Shortening 3

7.64

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 27

7.5

 

 

Bakery products 28

7.4

Germany

Kuhnt et al. 2011

Doughnuts

7.34

Hungary

National Food and Nutrition Institute of Hungary. 2013

Margarines 38

7.3

 

 

Sweet biscuits, wafers, muffins 66

7.3

 

 

Pastry, cakes 39

7.2

Ireland

Food Safety Authority of Ireland 2008

(1) Vegetable Fat Spread 70%

7.2

Hungary

National Food and Nutrition Institute of Hungary. 2013

Bakery products 39

6.9

 

 

Sweet biscuits, wafers, muffins9

6.9

 

 

Sweet biscuits, wafers, muffins21

6.9

 

 

Fondant, candies 14

6.9

Ireland

Food Safety Authority of Ireland 2008

(30) Irish Cheddar

6.9

Hungary

National Food and Nutrition Institute of Hungary. 2013

Pastry, cakes 76

6.8

 

 

Pastry, cakes 28

6.6

Ireland

Food Safety Authority of Ireland 2008

(2) Reduced Fat Blend 59%

6.6

Hungary

National Food and Nutrition Institute of Hungary. 2013

Margarines 29

6.5

 

 

Margarines 30

6.5

 

 

Sweet biscuits, wafers, muffins 96

6.5

 

 

Pastry, cakes 69

6.5

 

 

Semi-cooked food 13

6.5

 

 

Pastry, cakes 83

6.3

Ireland

Food Safety Authority of Ireland 2008

(31) Irish Cheddar

6.3

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 69

6.2

 

 

Pastry, cakes 78

6.2

 

 

Pastry, cakes 14

6.1

Switzerland

Richter et al. 2009

Fine bakery products

6.07

Hungary

National Food and Nutrition Institute of Hungary. 2013

Margarines 27

5.9

 

 

Fondant, candies 13

5.9

 

 

Margarines 50

5.8

 

 

Bakery products 40

5.8

 

 

Pastry, cakes 77

5.8

 

 

Sweet biscuits, wafers, muffins 119

5.7

 

 

Fondant, candies 8

5.7

 

 

Pastry, cakes 74

5.7

 

 

Margarines 36

5.6

 

 

Sweet biscuits, wafers, muffins 18

5.6

Ireland

Food Safety Authority of Ireland 2008

(9) Vegetable Fat Spread 70%

5.6

Turkey

Karabulut et al. 2007

Stick cracker

5.52

Hungary

National Food and Nutrition Institute of Hungary. 2013

Margarines 37

5.5

 

 

Pastry, cakes 55

5.5

 

 

Semi-cooked food 12

5.5

Ireland

Food Safety Authority of Ireland 2008

(18) Vegetable Fat Spread 70%

5.5

 

 

(29) Irish Cheddar

5.5

Turkey

Karabulut et al. 2007

Cake, filled and covered

5.33

Hungary

National Food and Nutrition Institute of Hungary. 2013

Pastry, cakes 4

5.3

 

 

Pastry, cakes 57

5.3

Turkey

Karabulut et al. 2007

Wafer roll, filled

5.27

Hungary

National Food and Nutrition Institute of Hungary. 2013

Bakery products 26

5.2

 

 

Pastry, cakes 56

5.2

 

 

Pastry, cakes 70

5.2

 

 

Pastry, cakes 73

5.2

 

 

Pastry, cakes 90

5.2

 

 

Semi-cooked food 11

5.2

Ireland

Food Safety Authority of Ireland 2008

(32) English Cheddar

5.2

Switzerland

Richter et al. 2009

Ice creams

5.14

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 130

4.9

 

 

Pastry, cakes 15

4.9

 

 

Pastry, cakes 46

4.9

Austria

Wagner et al. 2008

Cooled ready to eat products

4.86

Hungary

National Food and Nutrition Institute of Hungary. 2013

Chocolate egg

4.8

 

 

Pastry, cakes 42

4.8

Ireland

Food Safety Authority of Ireland 2009

Fish and Chips (product 118)

4.8

Hungary

National Food and Nutrition Institute of Hungary. 2013

Margarines 45

4.7

Ireland

Food Safety Authority of Ireland 2008

(10) Irish Butter

4.7

Turkey

Karabulut et al. 2007

Digestive, biscuit

4.69

Hungary

National Food and Nutrition Institute of Hungary. 2013

Bakery products 2

4.6

 

 

Chocolate egg

4.6

Serbia

Kravic et al. 2011

Biscuits 14B

4.6

Hungary

National Food and Nutrition Institute of Hungary. 2013

Bakery products 35

4.5

 

 

Pastry, cakes 7

4.4

 

 

Pastry, cakes 8

4.4

Serbia

Kravic et al. 2011

Biscuits 10A

4.4

Austria

Wagner et al. 2008

Pasta dishes

4.39

Hungary

National Food and Nutrition Institute of Hungary. 2013

Pastry, cakes 36

4.3

Denmark

Bysted et al. 2009

Cookies 19

4.3

Estonia

Meremäe et al. 2012

Margarine 12

4.25

Austria

Wagner et al. 2008

Other products

4.2

Ireland

Food Safety Authority of Ireland 2009

Hamburger 3

4.2

Sweden

Swedish National Food agency 2010

Dairy products (low price)

4.19

 

 

Dairy products (standard price)

4.15

Hungary

National Food and Nutrition Institute of Hungary. 2013

Chocolate egg

4.1

Ireland

Food Safety Authority of Ireland 2008

(28) Irish Cheddar

4.1

Ireland

Food Safety Authority of Ireland 2009

Quarter Pounder 2

4.1

 

 

Cheeseburger 4

4.1

 

 

Quarter Pounder 3

4.1

Switzerland

Richter et al. 2009

Snacks, cakes and biscuits

3.99

Ireland

Food Safety Authority of Ireland 2009

Beef Burger 10

3.9

Switzerland

Richter et al. 2009

Semi-solid fats

3.86

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 113

3.8

 

 

Pastry, cakes 40

3.8

Ireland

Food Safety Authority of Ireland 2009

Beef Burger 9

3.8

Austria

Wagner et al. 2008

Dough

3.78

Hungary

National Food and Nutrition Institute of Hungary. 2013

Margarines 61

3.7

Ireland

Food Safety Authority of Ireland 2009

Beef Burger 8

3.7

Turkey

Karabulut et al. 2007

Hazelnut cocoa cream

3.68

Hungary

National Food and Nutrition Institute of Hungary. 2013

Bakery products 42

3.6

Turkey

Karabulut et al. 2007

Cookie, filled

3.54

Estonia

Meremäe et al. 2012

Blended spread 1

3.5

Hungary

National Food and Nutrition Institute of Hungary. 2013

Margarines 69

3.5

 

 

Sweet biscuits, wafers, muffins 32

3.5

 

 

Sweet biscuits, wafers, muffins 86

3.5

Denmark

Bysted et al. 2009

Cake 4

3.5

Switzerland

Wagner et al. 2008

Desserts

3.41

Hungary

National Food and Nutrition Institute of Hungary. 2013

Margarines 42

3.4

 

 

Bakery products 22

3.4

Ireland

Food Safety Authority of Ireland 2009

Chicken Nuggets 4

3.4

Turkey

Karabulut et al. 2007

Wafer

3.32

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 131

3.3

 

 

Chocolate egg

3.3

Ireland

Food Safety Authority of Ireland 2009

Hamburger 2

3.3

 

 

Beef Burger 6

3.3

 

 

Beef Burger 7

3.3

 

 

Hawaiian Pizza 2

3.3

Switzerland

Richter et al. 2009

Whipped cream, cappuccino.

3.22

Ireland

Food Safety Authority of Ireland 2009

Beef Burger 5

3.2

Germany

Kuhnt et al. 2011

Butter

3.15

Hungary

National Food and Nutrition Institute of Hungary. 2013

Pastry, cakes 6

3.1

 

 

Pastry, cakes 53

3.1

 

 

Pastry, cakes 86

3.1

 

 

Margarines 35

3

 

 

Sweet biscuits, wafers, muffins 59

3

 

 

Fondant, candies 9

3

 

 

Pastry, cakes 48

3

Turkey

Karabulut et al. 2007

Sandwich, biscuit

2.98

Hungary

National Food and Nutrition Institute of Hungary. 2013

Margarines 46

2.9

 

 

Pastry, cakes 38

2.9

 

 

Dairy Products 1

2.9

Ireland

Food Safety Authority of Ireland 2009

Double Burger 3

2.9

 

 

Cheeseburger 3

2.9

Hungary

National Food and Nutrition Institute of Hungary. 2013

Margarines 51

2.8

 

 

Bakery products 24

2.8

 

 

Fondant, candies 1

2.8

 

 

Pastry, cakes 65

2.8

 

 

Semi-cooked food 14

2.8

 

 

Ice-creams 4

2.8

Ireland

Food Safety Authority of Ireland 2009

Cheeseburger 2

2.8

 

 

Beef Burger 4

2.8

 

 

Margarita Pizza 1

2.8

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 118

2.7

 

 

Pastry, cakes 33

2.7

 

 

Pastry, cakes 68

2.7

 

 

Pastry, cakes 93

2.7

 

 

Powder creams and coffees 16

2.7

Ireland

Food Safety Authority of Ireland 2009

Lamb Kebab

2.7

Germany

Kuhnt et al. 2011

Puff pastries

2.69

Hungary

National Food and Nutrition Institute of Hungary. 2013

Margarines 34

2.6

 

 

Sweet biscuits, wafers, muffins 127

2.6

 

 

Pastry, cakes 32

2.6

 

 

Pastry, cakes 63

2.6

Ireland

Food Safety Authority of Ireland 2009

Cheeseburger 1

2.6

 

 

Beef Burger 3

2.6

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 48

2.5

 

 

Chocolate egg

2.5

 

 

Chocolate egg

2.5

 

 

Pastry, cakes 66

2.5

Switzerland

Richter et al. 2009

Fried and fast food

2.5

Ireland

Food Safety Authority of Ireland 2009

Hamburger 1

2.5

Turkey

Karabulut et al. 2007

Puff pastry dough

2.47

Austria

Wagner et al. 2008

Potato chips

2.4

United Kingdom

Roe et al. 2013

Cod, fried in batter, takeaway

2.4

Turkey

Karabulut et al. 2007

Mini cake, filled and covered

2.4

Ireland

Food Safety Authority of Ireland 2009

Beef Burger 2

2.4

Sweden

Mattisson et al. 2011

Danish pastry bake off 2451

2.34

Turkey

Karabulut et al. 2007

Beef burger fried

2.33

Hungary

National Food and Nutrition Institute of Hungary. 2013

Margarines 3

2.3

 

 

Sweet biscuits, wafers, muffins 64

2.3

 

 

Pastry, cakes 3

2.3

 

 

Savoury biscuits, crackers, chips 25

2.3

Ireland

Food Safety Authority of Ireland 2008

(99) Hazelnut Milk Chocolate Spread

2.3

 

 

Beef Burger 1

2.3

 

 

Meat Pizza 4

2.3

Denmark

Bysted et al. 2009

Cookies 18

2.3

Sweden

Mattisson et al. 2011

Danish pastry bake off 2453

2.23

Hungary

National Food and Nutrition Institute of Hungary. 2013

Sweet biscuits, wafers, muffins 3

2.2

 

 

Sweet biscuits, wafers, muffins 95

2.2

 

 

Sweet biscuits, wafers, muffins 111

2.2

 

 

Chocolate egg

2.2

 

 

Other confectionery products 17

2.2

Ireland

Food Safety Authority of Ireland 2009

Double Burger 2

2.2

 

 

Fish and Chips (product 86)

2.2

 

 

Meat Pizza 1

2.2

Germany

Kuhnt et al. 2011

Chocolate products

2.11

Hungary

National Food and Nutrition Institute of Hungary. 2013

Bakery products 1

2.1

 

 

Bakery products 12

2.1

 

 

Pastry, cakes 67

2.1

 

 

Soups, convenience products 39

2.1

Poland

Zbikowska et al. 2011

Shortening 21

2.1

Ireland

Food Safety Authority of Ireland 2008

(11) Irish Butter

2.1

Ireland

Food Safety Authority of Ireland 2009

Margarita Pizza 2

2.1

United Kingdom

Roe et al. 2013

Potato chips, takeaway

2.05

Austria

Wagner et al. 2008

Hamburger

2.04

Turkey

Karabulut et al. 2007

Chocolate bar

2.04

Germany

Kuhnt et al. 2011

Instant products

2.02

Turkey

Karabulut et al. 2007

Sucuk (fermented sausage)

2.01

Hungary

National Food and Nutrition Institute of Hungary. 2013

Pastry, cakes 31

2

 

 

Powder creams and coffees 4

2

 

 

Powder creams and coffees 5

2

Poland

Zbikowska et al. 2011

Shortening 22

2

Serbia

Kravic et al. 2011

Biscuits 29C

2

* Numbers and/or letters e.g. biscuits 7A, shortening 16 represent coding of food product as reported in the original publication.

** Mean of composite samples    ***Fast food products    ****Retail products



ANNEX 10: Discussion of the baseline scenario

The evidence on trans fats content of food and consumption has been reviewed in depth by the JRC.

Most food products are low in trans fats but that is not the case in all Member States

The majority of food products contain less than 2 g trans fats/100 g fat (the lowest limit set in EU countries with limiting legislation). Seventy-seven per cent of products have less than 0.5 g trans fats/100g fat, according to an analysis of the most recent available data on the presence of trans fats in food in European food markets. 226 However, data on trans fats content of selected foods sampled between 2006 and 2013 indicates also amounts of industrial trans fats higher than the 2% limit in products available in supermarkets in predominantly Eastern European countries, as well as in products manufactured in Eastern Europe, which are also available in ethnic shops in Western Europe.

The average level of industrial trans fats in food has been declining but further reductions are uncertain

The analysis of the JRC suggests that industrial trans fats levels in food have been declining in some, but not all, Member States. Looking at some sectors, the trend can be dated back to the mid-2000s, as for instance in business-to-business margarines (Figure 12 below). Data on the industrial trans fats content of foods manufactured and sold in predominantly Eastern Europe 227 suggests that, in spite of reductions in certain categories of products, levels of industrial trans fats in other food products remain high. Further evidence collected in six South-Eastern European countries (including Croatia and Slovenia) has found that the number of packages of food products (considering the group of biscuits, cakes, wafers) that contained more than 2% of total fat as industrial trans fats had doubled between 2012 and 2014, 228  indicating that food industry operators had expanded their offer of products with high industrial trans fats content, contradicting the notion of a general downward trend.

Trans fats intake in Europe has been decreasing

There is evidence that trans fats intake has decreased overall in the EU 229 since the 1990s, from as high as 4.3 E% in elderly Dutch men in 1985 to average population intakes of less than 1 % of the energy intake in the 2000s. However less is known about dietary trans fats intakes in Eastern Europe. Whether trans fats intake will continue to decrease will depend on a variety of factors, and particularly on whether existing or future initiatives (other than EU intervention) may achieve further reductions in the levels of industrial trans fats in food products.

Robust pan-EU data on the variation in industrial trans fats consumption by socio-economic group are not available. However, the variation in industrial trans fats consumption by socio-economic group is expected to continue. Although the JRC publication does not estimate variation of trans fats intake across socio-economic groups, recent estimates exist for the UK. 230

Figure 12 Industry data indicate that the level of trans fatty acids in business-to-business margarines has declined

TFA; trans fats

Source: European Margarine Association, IMACE position on trans fatty acids. Brussels, April 2015. trans fats intake in Europe is decreasing. 231

Future initiatives towards reductions in industrial trans fats levels are uncertain

Various public, private, or public-private initiatives at sectoral, national and EU level have been associated with reductions in industrial trans fats levels in Europe (and beyond 232 ). There is evidence to suggest that both voluntary measures and legal initiatives have contributed to delivering positive results. Considering existing initiatives (whether voluntary or legislative) in the Member States, the evidence collected during the data collection phase and further during the validation consultation of this study suggests that most of the available gains (in terms of industrial trans fats elimination) have been achieved already. As a result, many of them are already compliant with the targets being discussed in this study. Whether further gains can be expected in the absence of EU action is not clear and will depend on whether the industry will act further, and whether Members States themselves may act if the EU does not.

It appears that most existing voluntary initiatives – at Member State level or EU level – have delivered their goals and further progress is uncertain. The industry in some MS has not acted voluntarily on industrial trans fats, and the evidence from certain Member States suggests that a voluntary approach may not deliver any progress there. 233

While some Member States have already passed legislation to limit industrial trans fats levels in food products, other Member States have indicated their intention to legislate. Whether further like-minded initiatives would be implemented elsewhere in the EU is unclear.

In the absence of EU action, each Member State might independently adopt measures or decide not to act. This lack of homogeneity in the EU hampers the effective functioning of the Internal Market and negatively affects innovation and the protection of consumers' health. Limited evidence exists to quantify the variation across Member States.

Finally, the abundance of products high in industrial trans fats manufactured in third countries that may export their products into some Member States makes it more likely that the industrial trans fats intake of at least some groups of consumers in those countries may remain too high or even increase.

Any further reductions in industrial trans fats in food are expected to translate quickly into health benefits

The relationship between industrial trans fats consumption and the scale of health impacts is important for the baseline scenario and all policy options. The evidence from Denmark suggests that changes in industrial trans fats consumption translate rapidly into reductions in cardio vascular disease. 234 Three years after the policy was implemented, mortality attributable to cardio vascular disease decreased on average by about 14.2 deaths per 100,000 people per year. This effect is confirmed by evidence collected in the US, with a different measurement method. 235

In some cases reformulation to reduce industrial trans fats has the potential to increase the saturated fat content of food. This has implications for the scale of the health benefits achieved by industrial trans fats reduction – higher levels of saturated fat are thought to be associated with increased risk of coronary heart disease (though even if trans fats was fully replaced by saturated fat there would still be a net health benefit). The data collected in the country research did not indicate that industrial trans fats have always been replaced with saturated fats.

The environmental impact will depend on the reformulation

With the exception of the most pessimistic variant (B3), the baseline assumes that foods are reformulated to reduce industrial trans fats content. The shift in consumption of ingredients has the potential to have environmental impacts, examples being changes in the consumption of soya and palm oil. In Denmark the replacement fat that was used varied depending on the food product. 236 The desk research from ICF indicates that in Denmark when palm oil has been used there has been a drive to use only sustainable palm oil. New fat alternatives have been developed during recent years, e.g. through enzymatic interesterification, and there are many commercially available alternatives to palm oil. 237 The exact magnitude of environmental impacts will depend on the food business operator’s choice of ingredients.

Initial assumptions

·industrial trans fats content in EU food will decline to zero over a 10 year period (linear decline assumed) OR over a 15 year period, OR remain stable;

·Reductions in industrial trans fats consumption have a commensurate and rapid impact on cardio vascular disease incidence;

·Reformulation is done so as to avoid potential unintended consequences (e.g. via an increase in saturated fat content);

·Single Market integrity issues will be more prominent in the baseline scenario than in the presence of a harmonised EU approach to industrial trans fats;

·Industrial trans fats reduction will prompt some changes in the aggregate demand for inputs to the food industry, changes that have the potential to have environmental impacts.



ANNEX 11: Intervention logic for the different options

Table 29 Intervention logic model for Option 1a: Voluntary agreement with food business operators on industrial trans fats content in food

Inputs

Activities

Outputs

Outcomes

Long-term impacts

Financial and human resources required to:

Formulate agreement

Develop and implement new products and processes

Source alternative ingredients

Monitor, oversee and report on new arrangements

Agreement between food businesses and EU authorities regarding scope and details of arrangements and implementation

New product development

Sourcing of alternative ingredients - substitution of industrial trans fats with poly/monounsaturated and saturated fats

Implementation of new products and processes

Monitoring, oversight and reporting

Decrease of industrial trans fats content in food below 2% of fat among participating businesses

industrial trans fats content in products might vary based on which businesses adopted voluntary measures

Reduction of industrial trans fats consumption for most population subgroups (but likely slower reduction and of a minor magnitude than legal option)

Ongoing product development and innovation

Harmonisation of standards within Internal market, dependent on rate and geographical spread of voluntary participation

Harmonisation of standards with some export markets

Decrease in cardio vascular diseases prevalence and mortality

Improved productivity in EU economy from healthier consumers

Reduced economic burden on healthcare systems

Enhanced image, competitiveness and innovation of food industry

Increased trade across EU Member States (and third countries)

Costs and potential unintended effects:

Administrative burdens for businesses – formulating the agreement, understanding the rules, monitoring and reporting

Administrative burdens for authorities – formulating the agreement, monitoring and oversight

Direct costs to businesses: investment in product development, new production processes, purchase of ingredients, operating costs

Potential increases in product prices

Possible effects on product availability, taste and choice

Risk of incomplete compliance with voluntary measures, especially among small producers

Risk of increase of trans fats content for some categories of products targeted at lower income groups

Potential social implications - costs for low income groups

Possible adverse effects on competitiveness vs imports in the EU market and vs exports in some third country markets

Adverse impacts on some suppliers of ingredients

Potential increase in demand for environmentally damaging tropical oils

Potential negative social impacts – inequalities in disposable income

Potential negative economic impacts – competitiveness in export markets and competition with food business operators that did not adopt voluntary measures

Potential negative environmental impacts -deforestation caused by demand for tropical oils

Products with industrial trans fats from producers from third countries entering EU market with potential competitive advantage



Table 30 Intervention logic model for Option 1b: Legal limit on industrial trans fats content in food

Inputs

Activities

Outputs

Outcomes

Long-term impacts

Financial and human resources required to:

Develop and implement new legislation

Develop and implement new products and processes

Source alternative ingredients

Monitor and enforce implementation

Introduction of new legal rules, provision of information

New product development

Sourcing of alternative ingredients - substitution of ingredients with high industrial trans fats content with polyunsaturated, monounsaturated and saturated fats

Implementation of new products and processes

Guidance and advice

Monitoring and enforcement by MS

Decrease of industrial trans fats content in food below 2% of fat

[Derogation for higher trans fats limit for low fat foods ]

Reduction of industrial trans fats consumption for all population subgroups

Ongoing product development and innovation

Level playing field within Internal Market, including imports

Shift in alignment with practice in export markets

Decrease in cardio vascular diseases prevalence and mortality

Improved productivity in EU economy from healthier consumers

Reduced health inequalities amongst consumers

Reduced economic burden on healthcare systems

Enhanced image, competitiveness and innovation of food industry

Increased trade across EU Member States (and third countries)

Costs and potential unintended effects:

Administrative burdens for authorities – implementation and monitoring, enforcement

Administrative burdens for businesses – understanding the rules potentially testing

Direct costs to businesses: investment in product development, new production processes, purchase of ingredients, operating costs

Potential increases in product prices

Possible effects on product availability, taste and choice

Potential social implications - costs for low income groups

Possible adverse effects on competitiveness (vs exports in third country markets)

Adverse impacts on some suppliers of ingredients

Potential increase in demand for oils whose production can be associated with negative environmental impacts

Potential negative social impacts – inequalities in disposable income

Potential negative economic impacts – competitiveness

Potential negative environmental impacts – e.g. deforestation caused by change in demand for tropical oils

Table 31 Intervention logic model for Option 2: Introduction of the obligation to indicate the trans fats content of foods in the nutrition declaration

Inputs

Activities

Outputs

Outcomes

Long-term impacts

Financial and human resources required to:

Develop and implement new legislation

Develop and implement new product labels for packaged food

Monitor and enforce on implementation

Support accompanying communications / awareness-raising actions to advise consumers about trans fats

Introduction of new legal rules, provision of information

New product label and ingredients list development

Potential sourcing of alternative ingredients - substitution of industrial trans fats with poly/monounsaturated and saturated fats

Monitoring and enforcement by Member States

Communication / awareness-raising campaigns

Declaration of trans fats content in food labels on prepacked foods

Reformulation of foods to maintain product demand might lead to a decrease of industrial trans fats content in food

Reduction of trans fats consumption – potential variation across subgroups based on health literacy

Inclusion of the trans fats content of foods in the nutrition declaration

Enhanced and standardised consumer information, increased consumer confidence

Changes in supply chain demand for ingredients that contain trans fats and their substitutes

Decrease in cardio vascular diseases prevalence and mortality

Improved productivity in EU economy from healthier consumers

Reduced economic burden on healthcare systems

Enhanced image of food industry

Trade impacts

Costs and potential unintended effects:

Administrative burdens for authorities – implementation, monitoring and enforcement

Administrative burdens for businesses – understanding the rules and provision of information

Direct costs to businesses: investment in product labels development, detection of trans fats in own products, purchase of ingredients, operating costs

Potential increases in product prices

Potential social implications – potential to increase the differential in trans fats intake if groups where trans fats intake is higher are also less responsive to labelling

Adverse impacts on some food manufacturers where reformulation is difficult and impacts on foods containing ruminant trans fats

Potential for less healthy options to be selected by consumers who are not equipped to interpret the trans fats information on the nutrition declaration

Potential to exacerbate inequalities in health outcomes even as overall position improves

Negative image of products containing ruminant trans fats (in particular milk and dairy products)

Potential negative economic impacts – competitiveness in export markets;

Reduced demands for certain food products;

Potential for lack of consistency within the Internal Market if some MSs introduce national legal limits for trans fats alongside the EU labelling obligations

Table 32 Intervention logic model for Option 3a: Voluntary measures to prohibit the use of partly hydrogenated oils in foods

Inputs

Activities

Outputs

Outcomes

Long-term impacts

Financial and human resources required to:

Formulate agreement

Develop and implement new products and processes

Source alternative ingredients

Monitor, oversee and report on new arrangements

Agreement between food businesses and EU authorities regarding scope (including a definition of “partly hydrogenated oils”) and details of arrangements and implementation (only businesses using partly hydrogenated oils)

New product development

Sourcing of alternative ingredients - substitution of partly hydrogenated oils with other oils

Implementation of new products and processes

Development of detection methods for partly hydrogenated oils

Monitoring, oversight and reporting (acknowledging presence of partly hydrogenated oils in packaged foods is simpler than trans fats since they are already declared in the label)

Decrease of industrial trans fats content in food among participating businesses. This may be less than through direct limits on industrial trans fats, though partly hydrogenated oils are understood to be the main dietary source of industrial trans fats.

industrial trans fats content in products might vary based on which businesses adopted voluntary measures to eliminate partly hydrogenated oils

Reduction of industrial trans fats consumption for all population subgroups, especially those with higher industrial trans fats intake from partly hydrogenated oils, but likely slower and of a minor magnitude than through legal measures

Ongoing product development and innovation

Harmonisation of standards within Internal market, depending on rate of uptake of voluntary agreement

Harmonisation of standards with some export markets

Decrease in cardio vascular diseases prevalence and mortality

Improved productivity in EU economy from healthier consumers

Reduced economic burden on healthcare systems

Enhanced image, competitiveness and innovation of food industry

Small potential impact on trade across EU Member States (and with third countries)

Impacts may be reduced compared to measures to limit industrial trans fats directly (depending on the strength of the partly hydrogenated oils to industrial trans fats relationship).

Costs and potential unintended effects:

Administrative burdens for businesses – formulating the agreement, understanding the rules, monitoring and reporting

Administrative burdens for authorities – formulating the agreement, monitoring and oversight. Costs of testing and monitoring may be reduced compared to Options 1a and 1b.

Direct costs to businesses: investment in product development, new production processes, purchase of ingredients, operating costs

Potential increases in product prices

Possible effects on product availability, taste and choice

Risk of incomplete compliance with voluntary measures, especially among small producers

Potential social implications - costs for low income groups

Possible adverse effects on competitiveness vs imports in the EU market and vs exports in some third country markets

Adverse impacts on some suppliers of ingredients

Potential increase in demand for tropical oils

Potential negative social impacts – inequalities in disposable income

Potential negative economic impacts – competitiveness in export markets and competition with food business operators that did not adopt voluntary measures

Potential negative environmental impacts -deforestation caused by demand for tropical oils

More MS may introduce national legal provisions leading to fragmentation, unless aligned to Danish model



Table 33 Intervention logic model for Option 3b: Legal prohibition of the use of partly hydrogenated oils in foods

Inputs

Activities

Outputs

Outcomes

Long-term impacts

Financial and human resources required to:

Develop and implement new legislation

Develop and implement new products and processes

Source alternative ingredients

Monitor and enforce implementation

Agreement at EU level on a shared definition of “partly hydrogenated oils”

Introduction of new legal rules, provision of information

New product development

Sourcing of alternative ingredients - substitution of partly hydrogenated oils with other oils

Implementation of new products and processes

Development of detection methods for partly hydrogenated oils

Monitoring and enforcement by Member States

Elimination of partly hydrogenated oils content in food

Decrease of industrial trans fats content in food

Reduction of industrial trans fats consumption for all population subgroups, especially those with higher industrial trans fats intake from partly hydrogenated oils

Ongoing product development and innovation

Harmonisation of standards within Internal market

Harmonisation of standards with some export markets

Decrease in cardio vascular diseases prevalence and mortality

Improved productivity in EU economy from healthier consumers

Reduced health inequalities amongst consumers

Reduced economic burden on healthcare systems

Enhanced image, competitiveness and innovation of food industry

Increased trade across EU Member States (and third countries)

Costs and potential unintended effects:

Administrative burdens for businesses –understanding the rules, potentially testing

Administrative burdens for authorities – implementation and monitoring, enforcement. Costs of testing, monitoring and enforcement may be reduced compared to Option 1b.

Direct costs to businesses: investment in product development, new production processes, purchase of ingredients, operating costs

Potential increases in product prices

Possible effects on product availability, taste and choice

Potential social implications - costs for low income groups

Possible adverse effects on competitiveness of exports in some markets

Adverse impacts on some suppliers of ingredients

Potential increase in demand for environmentally damaging tropical oils

Potential negative social impacts – inequalities in disposable income

Potential negative economic impacts – competitiveness in export markets

Potential negative environmental impacts -deforestation caused by demand for tropical oils

ANNEX 12: Impacts screening

The screening of impacts was informed by the literature review and interviews with stakeholders and national authorities, as well as analysis, by the contractor ICF. As the screening is based on analysis and understanding of all available evidence the risk of failing to consider potentially significant impacts should be minimised.

The contractor added to and refined the generic checklist of impacts in the Better Regulation guidelines to include additional and more specific impacts listed in the second column of the Table, and taking account of the specific policy context. For example, while the long list of impacts to be considered includes health and safety as well as social inclusion, more specific impacts in this context include impacts on consumer health, health inequalities and potential differences in costs for low income groups.

Table 34 Long list of possible impacts for screening

Impact type

Long list of impacts drawing on Commission IA guidelines

Additions and refinements to long list

Economic impacts

Growth and investment

Sectoral competitiveness

Facilitating SMEs growth

Achievement of the Single Market

Increased innovation and research

Technological development

Increased international trade and investment

Competition

Business compliance costs

Administrative burden

Consumer prices

Social impacts

Employment

Income distribution and social inclusion

Health & safety

Education

Governance & good administration

Social protection, health and educational systems

Cultural heritage

Consumer health

Health inequalities

Income inequalities

Consumer choice

Environmental impacts

Fighting climate change

Fostering the efficient use of resources (renewable & non-renewable)

Protecting biodiversity, flora, fauna and landscapes

Minimizing environmental risks

Palm oil production (and associated climate and biodiversity impacts)

Other impacts

Economic and social cohesion

Impacts in developing countries

Sustainable development

Fundamental Rights

General impacts

Individuals, private and family life, freedom of conscience and expression

Property rights and the right to conduct a business

Source: Better Regulation Toolbox, p99

The screening took account of:

·Both positive and negative impacts;

·Direct and indirect effects – including direct effects on nutrition and public health, as well as indirect effects from changes in costs and product substitution (such as potential environmental impacts from use of palm oil);

·Intended and potential unintended consequences. The intended consequences include benefits for public health and the Single Market, while possible unintended consequences could include impacts on the environment and international competitiveness;

·Short and long term effects – e.g. short term product reformulation costs and long term production costs.

The significance of impacts was assessed with regard to:

·Their expected magnitude – taking account of the likely scale of the impact and resultant benefits and costs, the numbers of businesses and consumers affected, and the extent of change expected;

·Their relevance for stakeholders – taking account of existing representations made by stakeholders, the views expressed in the stakeholder consultations, as well as analysis of the impacts on different groups;

·Their likelihood – taking account of available evidence collected by ICF about the probability of positive and negative effects occurring, and prioritising those for which there is robust evidence; and

·Their timescale – examining whether effects are likely to be short-lived or lasting in duration;

·The importance for the Commission’s horizontal objectives and policies – taking account of the relationship to high level objectives for jobs and growth set out in the EU2020 strategy as well as other relevant policies and strategies such as those for the Internal Market and international trade, as set out in DG SANTE’s Strategic Plan for 2016-2020. 238

Many of the screened impacts are inter-related. For example, growth and investment is clearly a highly policy relevant impact, but it is influenced by all of the other economic factors - sectoral competitiveness, SME growth, the functioning of the Single Market, innovation and research, technological development, international trade and investment, and competition. The screening process has therefore attempted to distinguish between those impacts which occur directly and those which may occur indirectly as a result of effects on other impact categories.

The impacts vary for different policy options in terms of their extent and significance. However, most impacts are relevant across the different options. The screening analysis was therefore undertaken for the options collectively rather than individually, with a view to assessing the differences in impacts between the options in more detail later in the impact assessment.

Screening of Impacts

Table 35 summarises the screening of impacts of action to address industrial trans fats in the EU.

Table 35 Significance of impacts for all the policy options under consideration

Impact

Expected magnitude

Relevance for stakeholders

Likelihood

Duration of impact

Comment

Economic Impacts

Growth and investment

xx

xxx

xx

x

Growth and investment are EU policy priorities and any potential impacts need to be considered carefully. Measures to reduce industrial trans fats may require investment in product development and new production processes, but may have adverse impacts indirectly as a result of costs for business and the public sector. Available evidence collected by ICF is limited and suggests that costs and economic impacts to date have been limited for countries and businesses that have taken action to limit industrial trans fats, but that potential impacts of further change need to be considered carefully.

Sectoral competitiveness

xx

xxx

x

x

Sectoral representatives have expressed concern about possible effects of some options on business costs and competiveness. Though evidence collected by ICF suggests that sectoral competitiveness need not necessarily be affected, the relative effects of different options need to be considered carefully. Assessment of the costs to business needs to be made in the first instance.

Facilitating SME growth

x

xxx

xx

x

SMEs account for the majority of food businesses in the EU. Any option to limit trans fats in food would potentially impact large numbers of SMEs. SMEs with fewer resources for R&D may face greater challenges in adapting to new rules than large companies. The potential impacts on SMEs and their growth therefore require more detailed assessment.

Achievement of the Single Market

xxx

xx

xxx

xxx

There are currently differences in policies and standards related to industrial trans fats in different Member States. One of the arguments for action at EU level would be to harmonise standards across the Single Market, creating a level playing field for producers and consumers in different Member States.

Increased innovation and research; technological development

xx

xx

xx

x

Reducing industrial trans fats in food products requires the use of alternative ingredients and frequently involves reformulation of food products. Action to limit industrial trans fats may therefore stimulate innovation and technological development, or require attention within existing R&D activities. While these effects may have a one-off nature, the ease of adapting or developing products may have a significant bearing on other impacts related to the costs of production and effects on competitiveness and growth.

Increased international trade and investment

x

x

x

x

Action to limit industrial trans fats in food have potential impacts on trade. There may be both benefits for EU exports (aligning EU product standards with those in export markets where there are limits on industrial trans fats) and potential negative effects (increasing costs relative to producers in some export markets). Evidence from ICF suggests that impact on levels of trade, and stakeholder concerns regarding trade effects, are limited.

Competition

-

-

-

-

No significant effects were identified, other than those described above in relation to the Single Market and international trade.

Compliance costs – product testing, reformulation, changing ingredients

xxx

xxx

xxx

xx

Businesses will incur costs in testing products, substituting ingredients and reformulating products. These costs vary by option. Direct costs to businesses may have an indirect effect on other impacts such as competitiveness, trade, growth and SME development; their analysis is therefore an important part of the impact assessment.

Administrative burden

xx

xxx

xx

x

Action to reduce industrial trans fats will depend on the transfer of information between the authorities, business and consumers, and require time to understand the rules, formulate appropriate responses, and monitor and report on progress. This will result in potentially significant time burdens and costs. Reducing administrative burdens is a major focus of the EC better regulation agenda.

Consumer prices and choice

xx

xx

xx

xx

Options will condition consumer choice through change to food products and product information, price impacts

Social Impacts

Employment

x

x

x

x

Enhancing employment is a key policy priority for the EU. No evidence was found of a direct effect on employment (e.g. through effects on the labour intensity of food production). Jobs are potentially impacted indirectly, through changes in business costs, competitiveness and investment. However, no effect on employment has been identified in the literature or expressed as a concern by stakeholders.

Income distribution and social inclusion

xx

xx

xx

x

Action to limit industrial trans fats can be expected to have greater impacts on businesses and consumers in Member States and social groups where current levels of industrial trans fats in products and consumption are greatest. The analysis has considered differences in costs between different Member States and different social groups.

Health (& safety)

xxx

xxx

xxx

xx

Health impacts are the primary reason for taking action to reduce industrial trans fats levels in food, and are therefore central to the analysis of benefits.

Education

x

x

x

x

Action for trans fats is not expected to have general impacts on education; however, consumer awareness is a significant issue, particularly with respect to its role in changing consumption patterns and therefore delivering health benefits.

Governance & good administration

x

x

x

xx

This is closely related to the issue of administrative burden listed under economic impacts above, and can be considered alongside that issue.

Social protection, health and educational systems

-

-

-

-

No distinct issues related to social protection, health and educational systems were identified, other than impacts on consumer health and awareness identified above.

Cultural heritage, consumer choice

x

x

x

x

By requiring substitution of ingredients and reformulation of products, action to limit industrial trans fats could potentially impact on the quality and character of certain processed products, affecting the choice and experience of consumers.

Health inequalities

xx

x

xx

x

Health benefits are likely to be greater in those parts of the EU where industrial trans fats intake are currently highest. This may have the effect of reducing health inequalities. The distribution of health impacts, and their effect in different countries and social groups, is therefore a relevant and potentially significant issue.

Environmental Impacts

Fighting climate change

xx

xx

xx

xx

Reductions in industrial trans fats have the potential to lead to the substitution of partly hydrogenated oils with palm oil. Production of palm oil is a significant driver of tropical deforestation and degradation of peatland soils, with significant impacts on carbon emissions. On the other hand this may combine with reduced consumption of source oils that are partly hydrogenated (such as soy), which could have a beneficial environmental impact. Current efforts to ensure that palm oil and other oils are produced and sourced sustainably may contribute to limiting adverse impacts. The overall environmental impact of these combined trends has to be evaluated.

Fostering the efficient use of resources (renewable & non-renewable)

-

-

-

-

This was not identified as an issue in the literature or stakeholder consultations.

Protecting biodiversity, flora, fauna and landscapes

xx

xx

xx

xx

Tropical deforestation, driven by increased palm oil production, as well as impacting on carbon emissions (see above) is a major driver of biodiversity loss and threatens a wide range of tropical species.

Minimizing environmental risks

xx

xx

xx

xx

Principal environmental risks relate to climate change and biodiversity – as identified above.

Other impacts

Economic and social cohesion

xx

xx

xx

xx

Potentially impacted by other impacts identified above, especially health inequalities and differential impacts on costs between countries. These more specific impacts should be assessed in the first instance.

Impacts in developing countries

x

-

x

x

Not identified as an issue in the literature or stakeholder consultations. Potential impacts are possible as a result of trade; however, international trade in products containing industrial trans fats appears to be limited.

Sustainable development

x

x

x

x

A number of other issues identified (e.g. environmental, health and economic impacts) are relevant to sustainable development. However, no specific or distinct issues are identified in the literature or interviews.

Fundamental Rights

-

-

-

-

Not identified as an issue in the literature or stakeholder consultations.

General impacts

Individuals, private and family life, freedom of conscience and expression

-

-

-

-

Not identified as an issue in the literature or stakeholder consultations.

Property rights and the right to conduct a business

-

-

-

-

Not identified as an issue in the literature or stakeholder consultations.

Key: - = not identified as an issue; x = moderate significance; xx = strong significance; xxx = very strong significance

Based on the screening assessment, the following potentially significant impacts were identified as priorities for more detailed analysis:

·Health benefits;

·Effects on health inequalities;

·Compliance costs for business, including the role of innovation and technological development;

·Administrative burdens for business and public authorities;

·Consumer impacts – prices, choice and product quality;

·Single Market impacts;

·Effects on international trade;

·Impacts on SMEs;

·Environmental impacts – particularly in relation to deforestation and implications for climate change and biodiversity.

The potential indirect effects of the above on competitiveness, growth and social cohesion also need to be considered in the analysis.



ANNEX 13: Assumptions for the health impacts assessment

Baseline (option 0)

The baseline assumes an initial industrial trans fats intake of 0.3 % of the energy intake (sensitivity analysis with +- 50 % initial intake) and three alternative scenarios. The assumption for the baseline industrial trans fats intake from ICF follows the assumption in the JRC modelling study. An alternative worst case estimate of 0.7 % of the energy intake based on a paper by Micha et al (2014) was tested in the JRC study but did not provide additional insights for the overall outcome of our study. The alternative scenarios intend to capture the different ways in which intake might change over time in the absence of additional EU action:

·A ‘rapid decline’ scenario in which intake decreases linearly to zero in 10 years (the baseline assumption adopted by the JRC model in its model);

·A ‘mid-range’ scenario in which intake decreases linearly to zero after 15 years;

·A ‘no decline’ scenario in which industrial trans fats intake remains constant at of 0.3 % energy intake for the duration of the period.

The evidence gathered by ICF suggests that the current situation is characterised by fragmentation, with a number of Member States having taken initiatives alone, without coordination with other Member States, to tackle the industrial trans fats problem. Some Member States governments have acted, as have some industry associations and individual companies.

Voluntary agreement (option 1a and 3a)

For Options 1a and 3a (voluntary agreements) ICF assumed that 20% of food manufacturing enterprises and 10% of food service enterprises participate in the agreement. The basis for this assumption is described in 0, below.

The participating firms are assumed to be representative of the overall population of Food business operators in terms of the contribution that the industrial trans fats in their products makes to population industrial trans fats intake. As such the industrial trans fats intake is assumed to decrease by an additional 20 % for packaged food and 10 % for non-packaged food after three years, on top of any decrease already accounted for in the baseline scenario. For instance, relative to scenario B1 (continuous decrease to complete elimination in 10 years) the voluntary agreement would speed up the decrease relative to the baseline assumption during the 3 first years. Whereas, relative to scenario B3 (unchanged industrial trans fats intake), the voluntary agreement would trigger a decrease in the industrial trans fats intake to 80 % of the current industrial trans fats intake from packaged products, and 90 % of the industrial trans fats intake from non-packaged products.

Evidence 1: Evidence base of options 1a and 3a assumptions

Several voluntary initiatives around Europe have been launched in the context of efforts to reduce industrial trans fats content in products.

At the national level, formal voluntary schemes have been running in Member States such as the Netherlands, the United Kingdom 239 , and Poland. In the Netherlands, the voluntary measures included representative organisations of various relevant industries, and also the Dutch Ministry for Public Health, Wellbeing and Sport 240 as observer. For industrial trans fats the goal was to reduce the amount of industrial trans fats in food so that, in accordance with the guidelines from the Dutch Health Council, a maximum of 1 percent of energy intake originating from trans fatty acids could be achieved. The measure was adopted across the various relevant industries which together represent 80 % of the food industry that uses oils and fats. All participants reduced the content of industrial trans fats below 2%. However, The impact of voluntary initiatives in the UK is less clear: a number of food producers (particularly of non-pre-packed food) have not enrolled. Research has suggested that most companies who did sign up are likely to have initiated changes in their products before, and for other reasons than to comply with, the voluntary agreement. 241 Other research found that the measures adopted in Poland had limited effect. 242

At the EU level, a number of initiatives have been sponsored by food business operators to reduce industrial trans fats (such as the reduction below 2 % of  industrial trans fats in the vegetable oils sector promoted by FEDIOL 243 ). There is also good evidence of unilateral action by large individual food business operators that operate in the whole EU market or a large part of it. 244 Interviews with fat and oils sector representatives at European level (FEDIOL and IMACE) suggest that most of the products sold by their sectors have an industrial trans fats content of less than below 2 %. Such results have been achieved through voluntary measures. It seems unlikely that further reductions in  industrial trans fats content will be achievable via the same mechanism since residual presence is concentrated in output of smaller firms that are not part of the major industry groupings (see also evidence on existing voluntary agreements at EU level summarized in Error! Reference source not found.). Hence it is likely that participation by firms from these associations would be purely symbolic and would not have any material impact on the residual industrial trans fats ‘problem’.

Interviews of ICF with representatives from the chocolate, biscuit and confectionary sectors (CAOBISCO) indicate that voluntary measures have been adopted by some but not all of the national federations and large businesses operating in the sector. This demonstrates the extent to which EU-level business organisations can help achieve changes in industry practices through voluntary agreements. In some Member States the industry is not so well organised, is not represented at EU level and cannot therefore be a party to these voluntary agreements established at that level.

The evidence summarised above suggests that in countries and sectors where the industry has been well organised and committed to voluntary agreements already, and in the countries where legislation exists to limit  industrial trans fats intake, the added value of the option will be limited. Besides, the option will also have limited or no value in enrolling businesses in those countries where the industry is not so well organised, and is therefore not represented at EU level. That includes most countries where industrial trans fats levels appear to be higher than the EU average. On that basis, the model assumes that for option 1a 20 % of the food manufacturing industry and 10 % of food services enterprises would reduce industrial trans fats content of their products as a result of joining a voluntary agreement at EU level.

Mandatory labelling (option 2)

The health impacts of option 2 are assessed by assuming that the industrial trans fats intake from packaged food decreases by a maximum of 50 % after two years (assumption of 2 year implementation period). After the two year period intake evolves as assumed in each of the three variants of the baseline scenario. Industrial trans fats intake from non-packaged food (which is not affected by the option) remains as in the baseline.

The reduction in industrial trans fats intake comes from a combination of consumer choice and induced reformulation (where food business operators reformulate foods to reduce the industrial trans fats content in order to avoid having to show a high industrial trans fats level on the label). The 50 % figure is replicated from the analysis of the JRC. The external contractor ICF regards it as an upper limit on the feasible impact of industrial trans fats labelling – low consumer awareness of industrial trans fats will reduce the scale of impacts mediated by consumer choice and may also reduce the scale of induced reformulation.

Evidence 2: Evidence base of option 2 assumptions

The link between labelling and changes in consumer behaviour is more tenuous than that between labelling and reformulation. Studies looking at the link between labelling and changing consumer behaviour show that the relationship is complex and difficult to discern:

Labelling may have unintended consequences e.g. in the US levels below 0.5 g can be labelled as 0 g of industrial trans fats leading to reductions in suggested serving size to meet labelling criteria. 245 This may have no impact on consumption. Besides, the continued labelling of “fully/partly hydrogenated” oils on the food composition label as required by EU legislation, which consumers may use to detect trans fats may lead them to reject products that contain fully hydrogenated oils even though those products may have low levels of industrial trans fats. It was also the view of most stakeholders consulted on this study that trans fats labelling will not lead to healthier product choices.

Trans fats intake can remain extremely high in pockets of the population. In Canada, even after mandatory labelling led to 76% of foods meeting voluntary trans fats limits, intake in the population still exceeded the WHO recommendation that less than 1 % of dietary energy intake should come from consuming trans fats. In particular, intake by teenage boys was double the recommended level. 246

Some foods with low trans fats levels are costlier, which will be felt more by consumers with a low socioeconomic status. Ricciuto et al. found that some margarine companies in Canada offered products with a low trans fats level while continuing to sell products with a high level at a lower price. Thus, price-conscious consumers would be more likely to consume the less healthy product, thereby increasing their risk of diet-related chronic disease. 247

For food labelling regulation to be effective, the population must be aware of trans fats and able to interpret nutrition labels accurately. A study financed by the European Commission 248 produced evidence on the impact of food information on consumers’ decision making. Findings show that consumers' ability to identify the healthier alternative depends on accessing the relevant information on the food label and understanding it. There is evidence that some sub-groups, and low-income populations are unable to interpret labels and/or have low awareness of trans fats and their health risks. 249 More generally, the evidence on consumer awareness of  industrial trans fats and issues linked to trans fats intake indicates that it is low in many EU countries (as documented in Annex 32), and comparatively lower than in the countries where labelling policies have been called successful (Canada and the United States), at the time these policies were introduced. It was also the view of most stakeholders consulted on this study that consumers would not understand the information on the product label. Additionally, respondents also believed that it is unlikely consumers would change their consumption of products high in industrial trans fats as a result of reading and understanding labels.

On the basis of this evidence, some impact on industrial trans fats intake can be expected as a result of reformulation but not as a result of consumer responses to the information provided on labels.

Legislative limit 2% (option 1b)

Evidence from Denmark suggests that the introduction of legislation limiting the trans fats content of foods was very effective in reducing the population industrial trans fats intake. Since the introduction of the measure in 2002, the average intake of industrial trans fats decreased in all age groups of the Danish population. 250 The most recent data suggest that in 2014 the average industrial trans fats intake in Denmark was 0.009 % of energy intake. 251

Based on the evidence discussed above, the health model assumes that for options 1b the industrial trans fats intake decreases to 0.009 % of energy intake after two years (assumption of 2 year implementation period) and then evolves as assumed in each of the three baseline scenarios.

Legal ban on partly hydrogenated oils (option 3b)

This option would introduce a ban on the use of partly hydrogenated oils as a food ingredient, through EU legislation, with a transition period of 2 years.

The U.S. Government introduced a ban on partly hydrogenated oils because they are the primary dietary source of industrial trans fats in the USA. Although all refined edible oils contain some industrial trans fats as an unintentional by-product of their manufacturing process, industrial trans fats are an integral component of partly hydrogenated oils and are purposely produced in these oils to affect the properties of the oil and the characteristics of the food to which they are added. 252 Use of partly hydrogenated oils in foods will be phased out in the U.S. market by June 2018.

While this option was not considered in the JRC model, this assignment has used the JRC modelling assumptions for the 2% limit in modelling the health impacts of the partly hydrogenated oils ban. Therefore, the model of ICF assumes that industrial trans fats intake will vary as in option 1b, i.e. that the removal of partly hydrogenated oils from the food supply will successfully eliminate the presence of food with high industrial trans fats content from the market.

To assess the robustness of the results a sensitivity analysis on the current EU population’s industrial trans fats intake was performed by ICF (i.e. the intake at the point in time when the analysis starts). The model was run with 0.15 industrial trans fats intake (-50 % than baseline initial intake assumption) and with 0.45 % of the energy intake industrial trans fats intake (+50 % than baseline initial intake). Annex 14 provides further details.

ANNEX 14: Additional information on the Sensitivity Analysis

1.Impact on health care costs (direct and indirect)

A sensitivity analysis has been conducted by ICF to show the impacts of alternative specifications of the starting point – i.e. the initial population industrial trans fats intake. This shows that, although the magnitude of costs is dependent on the industrial trans fats intake, all options deliver cost savings in all cases, and that options 1b and 3b provide the largest benefits. Table 36ompares the policy options cost variations with different current industrial trans fats intake assumptions for variant B2, 15 years elimination as the reference.

Table 36 Comparison of savings with different industrial trans fats intakes (M EUR)

Policy option

0.15 %E

(baseline -50%)

0.3 %E (baseline)

0.45 %E

(baseline +50%)

Option 1a

3,086

11,078

22,242

Option 1b

24,951

94,008

191,437

Option 2

4,283

15,353

30,770

Option 3a

3,086

11,078

22,242

Option 3b

24,951

94,008

191,437

Note: Figures represent the reduction in the present value of healthcare costs over 85 years, for variant B2, in million Euro

2.Impact on disability-adjusted life years

The sensitivity analysis shows that, although the magnitude of health benefits is greatly dependent on the current industrial trans fats intake, all options reduce the disease burden as compared to the baseline. Table 37 compares the performance of the policy options under different current industrial trans fats intake assumptions looking at the variant B2, 15 year elimination scenario.

Table 37 Health gains in disability adjusted life years averted (EU 28, Millions) by policy option under different industrial trans fats current intakes and considering the B2 variant of the baseline scenario

Policy option

0.15 %E

(baseline -50%)

0.3 %E (baseline)

0.45 %E

(baseline +50%)

Option 1a

0.2

0.7

1.5

Option 1b

1.7

6

12.5

Option 2

0.3

1

2

Option 3a

0.2

0.7

1.5

Option 3b

1.7

6

12.5

%E: % of energy intake

ANNEX 15: Impacts on health inequalities and details on appraisal of general objective 3: contribution to reducing health inequalities, one of the objectives of Europe 2020

Impact on health inequalities

Inequalities in health remain an important issue in the EU and across the globe. Within the EU there are, for example, substantial differences in life expectancy between countries (life expectancy varies from 74 in Bulgaria to 83 in France). There are also differences within countries. For example, in the UK life expectancy has risen consistently over the past few decades (until plateauing in 2016) but the gap between the life expectancy of the most affluent and most deprived in society has continued to grow. Although the mortality rate has more than halved, the difference in mortality between the rich and poor has not improved and in some cases, has worsened. 253

Food policies have the potential to reduce non-communicable disease mortality and morbidity while tackling existing health inequalities. However, their effectiveness in this dual aim is dependent upon several factors including their coverage of the population, and the degree to which individuals must alter their own behaviour to reap the rewards or whether the individual behaviour change required is minimised.

A number of different approaches have been taken by governments across the EU to reduce industrial trans fats intake. They have had, and are likely to have, varying effects upon their respective health burdens and inequalities. While robust, systematic baseline evidence on industrial trans fats-related inequalities (of intake and outcome) is lacking, there is good evidence of problems in certain population segments as found by ICF. The health impact modelling provides results at population level rather than for particular socio-demographic groups. The potential effects of each option on health inequalities are therefore discussed in qualitative terms. This text is based on published estimates and empirical evidence of trans fats policies and wider food policies across the world collected by ICF.

Legally binding action (options 1b and 3b)

Options 1b and 3b are expected to have the largest beneficial effect upon health inequalities of all of the policies investigated:

·They deliver the largest overall health-related benefits;

·Health benefits are universal, i.e. socio-demographic groups that are unresponsive to information in food labels, or which consume products of food business operators that do not participate in industrial trans fats -related voluntary agreements will enjoy the benefits as much as those who choose foods on the basis of their industrial trans fats content and buy from food business operators that have reformulated their products to reduce industrial trans fats content;

·Benefits are (providing there is compliance by the food sector/enforcement of the law) certain – there are no intervening uncertainties relating to food business operators’ propensity to collaborate or to consumer awareness.

Introducing legislation to limit industrial trans fats content in food sold to consumers across the EU could result in reducing the disease burden by 6 million disability adjusted life years in the B2 baseline variant through a lowering of the coronary heart disease incidence. It would also reduce spending on healthcare and the wider societal costs of coronary heart disease by €94,008 million in present value terms. There is evidence that industrial trans fats are consumed in higher amounts in countries with higher coronary heart disease mortality 254 whilst also being consumed in higher amounts by the most deprived communities in each country. This evidence suggests that the largest reductions in industrial trans fats consumption will be enjoyed by more deprived groups who also have the highest baseline overall and coronary heart disease -specific mortality. This also suggests that the coronary heart disease -related mortality that is prevented will be much greater in deprived populations (between and within countries) than in more affluent populations whose industrial trans fats intake has already reduced and who have lower mortality rates. The reductions in health inequalities are likely to be greatest in younger populations where the largest inequalities often exist. Reducing these inequalities at a younger age is likely to yield the largest health and economic gains owing to the life expectancy of these groups compared to older groups. Modelling results from the UK highlight the potentially powerful reduction in coronary heart disease inequalities achieved by a legislative limit, projecting a reduction in coronary heart disease inequalities of 15% 255 and 33% more prevented deaths in the most deprived groups compared to the most affluent. 256  

It was also the view of most stakeholders consulted on the study of the external contractor ICF that a legally binding action would ensure the highest protection of all socio-economic groups from the negative health effects of industrial trans fats intake.

If Option 1b was specified such that the 2% limit applied to all food products (i.e. ingredients as well as final products sold to the consumer) it seems likely that the health benefits would increase. A 2 % limit applied to all food products would, for instance, remove partly hydrogenated oils from the market, and would influence the reformulation options available to food business operators.

Mandatory labelling (option 2)

On the assumptions made by ICF, the labelling option is – at most – 16% as effective as legally binding actions (option 1b and 3b) in health benefit terms. Under the most optimistic plausible assumption about its efficacy, the labelling option is estimated to deliver a one million disability adjusted life years reduction as compared to the B2 baseline variant. Food labelling with nutritional and other information is widely used with the aim to facilitate informed choice by the consumer.

The efficacy of adding trans fats content data to nutrient declaration as a mechanism for effecting changes in intake is highly uncertain. Whilst empirical evidence is in short supply, concerns have consistently been raised that labelling interventions, could potentially exacerbate health, and dietary inequalities. 257 This is because labelling interventions require individuals to alter the behaviour to reap the rewards of the intervention. To alter their behaviour, they must be motivated to do so by understanding of both the health issue and of the label.

There is a possible indirect mechanism for labelling to have an effect – i.e. through reformulation by food business operators that is induced by having to explicitly state the industrial trans fats content of products in the nutrient declaration. The potential scale of such an effect is undetermined in this instance. Food business operators may take the view that low awareness of the health aspects of industrial trans fats consumption among many consumer groups means that the risk of economic losses from maintaining existing industrial trans fats levels is low.

Across the EU, there are variations in coronary heart disease mortality and industrial trans fats consumption. It is likely that labelling would have a negligible effect upon reducing relative health inequalities. 258 Indeed, there is some risk of the labelling scenario resulting in a worsening of health inequalities as discussed in more detail below. It is very likely that this policy would be less effective at reducing health inequalities than the legislative limit or voluntary agreement. Unlike the legislative options the benefits for health inequalities are likely to be small and are not assured.

Voluntary agreement (option 1a and 3a)

On the assumptions developed in the analysis it is expected that the voluntary action options would be at most 12% as effective as the legally binding actions (option 1b and 3b) in terms of the health benefits generated.

A variety of voluntary reformulation policies have been deployed across the world for reducing salt intake. These have had mixed results. To date, the largest population-wide reductions in sodium consumption have been achieved in Finland, Japan and the UK via comprehensive “upstream” strategies involving population-wide, multicomponent policies. In contrast, more “downstream” approaches such as individual approaches and worksite or community interventions have been found to be less effective 259 , again demonstrating the effectiveness hierarchy of public health interventions. 260

For trans fats policy specifically, the UK adopted a voluntary approach. This did reduce industrial trans fats intake 261 , but much less than in Denmark where the legal limit forced the industry to reformulate (or to stop placing of the market) products containing partly hydrogenated oils/high industrial trans fats contents. The key aspect of a voluntary mechanism, for health inequalities, is that it has the potential of leading to product reformulation. In contrast, the labelling policy, which requires the consumer to read the label and change their behaviour, is likely to result in larger changes in the more health conscious, with lower coronary heart disease mortality, than the deprived groups. As the product has a reduced industrial trans fats content, reaping the benefit of the policy does not require individual behaviour change assuming the industrial trans fats content has been reduced equally across all products and locations. It is therefore likely to reduce the disparity between industrial trans fats consumption in the most affluent and deprived groups, in turn reducing health inequalities. The size of the reduction in health inequalities depends upon the size of the reduction in industrial trans fats achieved through the voluntary reformulation.

Table 38 Expected impact of each option on health inequalities

Policy option

Expected impact

Comments

Option 1a

Moderate effect in reducing inequalities derived from industrial trans fats consumption

Unlike option 2, Option 1a will directly change product characteristics rather than require change in consumer behaviour, thus benefiting all groups including those facing greatest health impacts at present. Weaker effect than Option 1b because of weaker effect on overall industrial trans fats intake resulting from slower reformulation in low price product segments, hence delaying inequalities reduction.

Option 1b

Strong effect in reducing inequalities derived from industrial trans fats consumption

Expected to deliver strong health benefits for all groups, including for relatively disadvantaged groups

Option 2

Weakest beneficial effect, and potentially even an increase in inequalities

Health benefits are expected to be weaker than under Options 1b and 3b, and may be reduced among disadvantaged groups because of challenges presented by education and awareness. Scale of induced reformulation is undetermined.

Option 3a

Moderate effect in reducing inequalities derived from industrial trans fats consumption

Unlike option 2, this will directly change product characteristics rather than requiring change in consumer behaviour, thus benefiting all groups including those facing greatest health impacts at present. Weaker effect than Option 3b because of weaker effect on overall industrial trans fats intake.

Option 3b

Strong effect in reducing inequalities derived from industrial trans fats consumption

Expected to deliver strong health benefits for all groups, including for relatively disadvantaged groups which experience greatest health impacts currently

Details on appraisal of general objective 3: contribution to reducing health inequalities, one of the objectives of Europe 2020

Table 39 Appraisal of options’ performance under general objective 2: Contribution to reducing health inequalities

Policy option

Expected impact

Comment

Option 1a

(+)

Option is expected to have a positive impact on health inequalities but impact is expected to be reduced by limits to the participation in the voluntary agreement of food business operators servicing the residual high-intake socio-demographic groups. Unlike option 2, Option 1a will directly change product characteristics rather than require change in consumer behaviour, thus benefiting all groups including those facing greatest health impacts at present. It will have a smaller impact than Option 1b because of the weaker effect on overall industrial trans fats intake that results from slower reformulation in low price product segments, hence delaying inequalities reduction.

Option 1b

++

Strong, positive impact. Option is expected to eliminate industrial trans fats-related health inequalities with a high level of confidence.

Option 2

(-)

Option is expected to potentially increase health inequalities. Health benefits are expected to be weaker than under Options 1b and 3b. The scale of induced reformulation by industry is undetermined.

Option 3a

(+)

As for option 1a.

The effect will be weaker than in Option 3b because less impact on overall industrial trans fats intake.

Option 3b

++

As for option 1b.

Option 1a/3a + 2

+

Some synergistic effect is anticipated between voluntary agreements and product labelling but core constraints with regard to disadvantaged consumers groups and non-participation by businesses producing products containing industrial trans fats remain. The combination of labelling and voluntary agreement is expected to have a stronger effect than that of these options in isolation, and to reduce uncertainty by seeking to influence both actions by business and consumer demand. However, the effect will be weaker than Options 1b/3b and some uncertainty will remain.

Option 1b/3b + 2

++

No significant additional impacts are expected over and above those achieved by the legal options.

Note: scale of - - to + + indicates a range of strongly negative (- -) to strongly positive (+ +) impacts, with ‘0’ being neutral.



ANNEX 16: Impacts on administrative costs for businesses, understanding the requirements and verify compliance

All businesses in relevant food industry subsectors that are potentially affected by the new rules will need to spend some time understanding their obligations, determining compliance and deciding on their response. This time has a cost. Businesses may also incur costs in testing their products to determine industrial trans fats content, either to assess compliance with legal limits or to inform labelling requirements.

These administrative burdens are likely to affect a large number of businesses - as well as businesses whose products currently contain high levels of industrial trans fats, businesses who are unsure of compliance are also likely to be affected.

The research performed by the external contractor ICF suggests that, if a model similar to those adopted in countries that have already legislated is specified, then businesses are not likely to face significant costs reporting information about industrial trans fats to regulators. In Denmark, the industrial trans fats legislation did not include an obligation for food businesses to provide information to the authorities. Latvia’s legislation to limit industrial trans fats does not require businesses to provide information on their products’ industrial trans fats status unless the responsible institution - Food and Veterinary Service – requests it in the context of an on-site inspection. In this case the company is required to provide information on the specification and the recipe of the product.

The value of administrative burdens associated with familiarisation and determination of compliance strategy can be estimated using the Standard Cost Model. The time associated with each additional activity for each business is estimated and valued it at a standard hourly rate. The cost determinants are therefore:

·The number of businesses incurring additional time burdens

·The average time taken by each business (hours)

·The cost of time spent (EUR per hour).

Numbers of businesses affected

The number of businesses potentially affected by the new rules or voluntary arrangements is a major determinant of costs. This varies between the options as follows (Table 40).

Table 40 Factors determining numbers of businesses affected by each option

Policy option

Businesses affected

Option 1a

Pre-packed and non-prepacked food businesses, and food service companies.

Only subsectors whose products are likely to contain industrial trans fats will be affected.

Businesses in countries with existing legislation not affected

Number of businesses affected depends on rate of uptake of voluntary agreement – lower than in 1b

Option 1b

Pre-packed and non-prepacked food businesses, and food service companies.

Only subsectors whose products are likely to contain industrial trans fats will be affected.

Businesses in countries with existing legislation not affected

Mandatory limits will need to be understood by all potentially affected businesses – larger number of businesses affected than 1a

Option 2

Pre-packed food businesses only.

Labelling requirements are mandatory so all producers of pre-packed foods affected

Businesses in countries with existing trans fats legislation will be affected

Option 3a

Pre-packed and non-prepacked food businesses, and food service companies.

Only subsectors likely to be using partly hydrogenated oils will be affected.

Businesses in countries with existing trans fats legislation unlikely to be affected, as case for additional voluntary action is limited

Number of businesses affected depends on rate of uptake of voluntary agreement – lower than in 3b

Option 3b

Pre-packed and non-prepacked food businesses, and food service companies.

Only subsectors likely to be using partly hydrogenated oils will be affected.

Businesses in countries with existing legislation may be affected if use partly hydrogenated oils in small quantities

Partly hydrogenated oils ban will need to be understood by all potentially affected businesses – larger number of businesses affected than 3a

Some other businesses not included in the above categories will also need to understand the legislative requirements. Examples are large retailers that use third party manufacturers to produce food sold under own brand labels. The number of such firms is not known, but we assume that it is limited, and that the large majority of affected businesses are in the food manufacturing/processing and food service sectors.

Tables presenting the numbers of food businesses in the EU by country and subsector are given as supplementary data by the contractor ICF, based on Eurostat data. Overall, there are 1.08 million businesses in food subsectors potentially subject to trans fats legislation, of which 15% are involved in food manufacturing and 85% in food service activities.

The timetable and resourcing for this assignment did not provide for empirical testing across Europe of business familiarisation costs for a trans fats initiative. The targeted country research investigated this issue in consultations with government and business stakeholders and in the review of literature.

Table 41 presents an estimate of the numbers of businesses incurring administrative costs under each option. This is based on the following assumptions:

·All businesses in relevant subsectors incur some degree of administrative burden as a result of the measures. This may vary from a few minutes spent in understanding the rules and verifying compliance, to greater expenditure of time and resources in assessing the implications and collecting information;

·20% of businesses in food manufacturing sectors, but only 10% of food service businesses, are involved in the voluntary agreement options 1a and 3a 262 ;

·Businesses in countries with existing industrial trans fats legislation (Austria, Denmark, Hungary, Latvia, Lithuania) are not affected by Options 1a or 1b;

·Businesses throughout the EU are affected by Options 2, 3a and 3b.

Table 41 Numbers of businesses assumed to be affected by each option

Policy option

Number of businesses affected

Option 1a

117,918

Option 1b

1,019,240

Option 2

260,397

Option 3a

124,403

Option 3b

1,081,514

Source: ICF estimates, applying above assumptions to Eurostat data 263  

The figures indicate that more than 1 million businesses are potentially affected by Options 1b and 3b, including those in affected subsectors that are already compliant but nonetheless may incur some time costs in understanding the rules and checking compliance. 85% of the affected businesses are in the food service sector. The number of businesses affected by Option 2 is smaller than for Options 1b and 3b, because only food manufacturers, and not food service businesses, are covered. It is assumed that a slightly larger number of businesses are potentially affected by Option 3b than Option 1b, since businesses in the five countries with existing legislation limiting industrial trans fats would be subject to slightly different rules imposing a ban on partly hydrogenated oils.

The number of affected businesses is expected to be much lower under the voluntary options 1a and 3a. It is assumed that only 10% of food service businesses will be involved in the voluntary measures (see sections on health impacts)

Administrative costs – understanding the requirements and verify compliance

The time taken for businesses in affected food subsectors to understand requirements, collect information and verify compliance is expected to vary widely.

No information was found on such time burdens in the literature review or stakeholder interviews, so it is necessary to make an assumption about the likely burden:

·Assumed time taken per business to understand the requirements and verify compliance = 1 hour

·Average cost per hour is based on Eurostat data for labour costs (including social security contributions and other non-wage labour costs) for manufacturing and accommodation/ food service sectors for each country. For R&D activities, labour costs for professional and scientific services are used. For public sector costs, labour costs for public service activities are applied. 264

These assumptions are assumed to apply equally to all options – the main variable is therefore the number of businesses affected by each.

Employing these assumptions gives the following cost estimates at EU level (Table 42). The figures are one-off costs.

Table 42 Administrative costs: understanding requirements and verifying compliance (M EUR)

Policy option

Estimated one-off cost

Option 1a

3.3

Option 1b

18.5

Option 2

6.9

Option 3a

3.5

Option 3b

19.5

The figures suggest that these one-off costs are likely to be moderate for all options, but lower for the voluntary measures, given the much lower rates of engagement, particularly among food service businesses.



ANNEX 17: Impacts on compliance costs for businesses

The principal compliance costs for food businesses arising from the options are:

·Costs of product testing. Compliance will require a number of food businesses to test their products to ascertain their industrial trans fats content, in order to inform action. Costs will be incurred in organising and commissioning tests. Tests will also be carried out by Member States authorities. The costs of those tests are accounted for later on in this section.

·Costs of reformulating products. Some products containing industrial trans fats will require reformulation rather than a mere substitution of ingredients. For some food businesses, this may merely require a few hours work to try out different recipes, while for others it may require more substantial investments of time and resources in product development.

·Cost of ingredients. Businesses sourcing alternative ingredients to reduce industrial trans fats content may incur additional costs. This may be the principal cost for some operators, e.g. food service companies sourcing different fats for frying.

·Costs of labelling. Option 2 requires all prepacked food products to include information about trans fats content on their labels, obliging many businesses to incur costs in relabelling their products.

1.Compliance costs – product testing

Measures to limit industrial trans fats content in foods (mandatory and voluntary, Options 1a and 1b) as well as mandatory rules on trans fats labelling (Option 2) will require some businesses to analyse the industrial trans fats/ trans fats content of their products, and particularly raw materials producers as well as manufacturers using processing of a combination of ingredients. A ban or voluntary agreement on partly hydrogenated oils (Options 3a and 3b) is less likely to require trans fats testing of foods by the businesses since compliance checking will focus on whether partly hydrogenated oils are used as an ingredient. It is likely that a number of businesses will carry out testing as a precautionary measure as part of their internal due diligence processes, however those tests would not be required by the legislation and are not costed here.

Product testing will play an important role in providing the information that businesses need to enable them to decide whether they need to take action. Product testing will also play an important role in achieving compliance and is included here as a compliance cost. However a large number of businesses will not need to carry out tests as their effort to be compliant will involve choosing their ingredients.

The costs of product testing will depend on:

·The numbers of products tested; and

·The cost per product test. These include the time taken to arrange the test and provide samples, as well as the costs of undertaking the test itself.

The research by the external contractor found some evidence of the costs of testing products for industrial trans fats content. In Latvia, trans fats content is analysed by the Institute of Food Safety, Animal Health and Environment (BIOR). The cost of analysing one product was quoted in the national impact assessment as EUR 52.25 (excluding VAT). 265 IMACE (the European Margarine Association) advised ICF that fatty acid profiling for food products costs EUR 50 to EUR 100 per profile (with an average price of about EUR 65). Contributors to the validation consultation put the price of testing at between 30 and 150 euros. FEDIOL advised that EUR 65 per test was a reasonable estimate given their own understanding of the range (EUR 30 to 100).

The likely scale of costs involved is assessed based on the following assumptions:

·Between 1 % (food service sector) and 10% (manufacture of fats, oils, margarines) of businesses in the subsectors that are subject to legal limits (Option 1b) or entering a voluntary agreement (Option 1a) need to test their products to assess compliance; only raw ingredient producers and manufacturers using process will need to do so;

·Three products per business are tested on average;

·Under Option 2, 5 % of all labelled food products are tested to ascertain trans fats content. This assumption is conservative and assumes that the majority of products can be declared trans fats free – or categorised according to their trans fats content - based on ingredients, without the need for testing;

·Each product test incurs a fee of EUR 65 (in line with estimates provided by IMACE);

·Each product test requires one hour of administrative time to arrange, provide samples and interpret results; 266

Average cost per hour is based on Eurostat data for labour costs (including social security contributions and other non-wage labour costs) for manufacturing and accommodation/ food service sectors for each country.

The estimated costs of product testing in million euros are given in Table 43.



Table 43 Compliance costs – costs of product testing (M EUR)

Policy option

Estimated one-off cost

Option 1a

0.5

Option 1b

3.6

Option 2

65.0

Option 3a

0

Option 3b

0

These one-off costs are found to be largest for Option 2, given the large number of food labels and expectation that many products will need to be labelled to ascertain trans fats content. This is in spite of conservative assumptions about the level of testing required.

One industry representative organisation commented that Option 2 (mandatory labelling) could result in substantially higher costs in food testing than the other options. While a legal limit on industrial trans fats would merely require producers to ensure that industrial trans fats levels were below the specified limit, a labelling requirement could require more frequent testing, particularly because of fluctuations in the trans fats content in oils. This might require the content of each batch to be monitored and labels to be changed accordingly. Moreover, this would require all producers of packaged dairy and ruminant meat products (for which natural trans fats content varies depending on feed regimes, seasonality, type of animals etc.) to frequently analyse the trans fats content of their products. It was predicted that this would generate substantial costs.

2.Costs of reformulating products

The main factors affecting the total costs of product reformulation across the sector are:

·The number of products that require reformulation to reduce their industrial trans fats content or to phase out the use of partly hydrogenated oils; and

·The average cost for each product reformulated.

Estimating the number of products requiring reformulation is not straightforward. Firstly, there is a shortage of data on numbers of products that currently exceed the proposed limit on industrial trans fats (2 g per 100 g fat content) under Option 1, or that use partly hydrogenated oils as ingredients (and would therefore be affected by Option 3). Some assumptions need to be made in order to estimate the numbers of products affected.

Secondly, evidence is lacking on the proportion of products that require reformulation, rather than a simple substitution of ingredients. It is likely, for example, that more complex and processed food products such as oils, spreads, confectionery and seasonings will require reformulation. Some bakeries may be able to substitute partly hydrogenated oils with alternative oils and fats without the need to change recipes extensively, while food service businesses may also be able to switch ingredients comparatively easily, for example by changing the oils used for frying. The use of partly hydrogenated oils in conjunction with food additives used for technical reasons (e.g. in coatings) may be more difficult to phase out completely. Without access to a derogation mechanism, the phase-out of partly hydrogenated oils for such ‘technical’ uses would be required under option 3b but not under option 1b. It is unclear how much more difficult (and potentially costly) reformulation efforts would be under a 3b scenario relative to those required under option 1b. Again, assumptions are required about the proportion of products requiring reformulation.

With regard to the costs of product reformulation, very little evidence was found in the literature or stakeholder interviews. The evidence that is available presents a mixed picture:

·Experience from Denmark suggests that the costs of compliance with the legal limit on industrial trans fats have been limited, with no evidence available to suggest major investments were required in product reformulation;

·In Canada, the national competent authority advised that most of the research and development and recipe testing for voluntary reformulation of food products was done by the large multi-national companies. There was a tendency for SMEs to copy these reformulated products rather than spending money on their own research and development. As a result, the measures were not as costly to SMEs as may be assumed. Reformulation required much work by companies, but businesses have been aware for many years that trans fats would need to be removed from food, and reformulation efforts have been ongoing before the labelling legislation came into force. Most costs fell with the oil and fat suppliers because of their position at the start of the supply chain. The vegetable oil industry has played a key role in developing alternative fats and oils to deliver change across the food sector, reducing the onus on food businesses to reformulate (see Box 1 below);

·For the general food sector, reformulation costs have been estimated by the US Department of Agriculture at USD 11,500 to 100,000 (EUR 10,000-85,000) per formula, with a mid-range of USD 50,000 (EUR 43,000). This includes a ten month development cycle and an eight month market cycle;

·One major US producer of processed foods reported that reformulating in less than a year would cost USD 25 million (EUR 21.74m) for 187 product lines, or USD 134,000 (EUR 116,500) per product. After the reformulation the products were fully competitive, with no significant change in price, consumer acceptance, or shelf life. However, the costs of reformulation would fall by more than 50% over a three year period. This drop in costs was because producers often reformulate products for their own reasons, and required reformulations are less expensive if they can be combined with planned reformulations. It was considered that reformulation costs for fast food and food prepared in restaurants, bakeries and other retail food establishments should be lower than for processed, packaged foods 267 ;

·The Latvian government, in an impact assessment of the legislation introduced in that country, estimated that the cost of reformulation of products could be as low as EUR 60 000 in total for the whole country (Latvian Cabinet of Ministers, 2015). This estimate was based on an assumption that each of the 1264 food production companies would each have to reformulate three products and would spend eight hours on each product;

·Unilever, a major multi-national food manufacturer, reported that the costs of reducing industrial trans fats in food products have been limited, and absorbed within ongoing programmes of product development 268 ;

·An Austrian margarine producer reported that reformulation of commercial margarines was a relatively long process, taking 4-5 years of development, while reformulation of household margarines involved a shorter development phase of 2-3 years. Additional investment to improve the performance of machinery was also needed; machines had 20-30 % lower performance with the alternative fats because partly hydrogenated oils crystallize more rapidly than palm oil and palm oil derivatives. However, users of margarines in the bakery sector were provided with new ingredients with equal qualities, which they were able to use without further reformulation;

·Evidence collected by ICF suggests that a large proportion of reformulation costs will be met by the supply chain. For example, a Dutch supplier of ingredients (bread improvers, bread and pastry mixes) to the bakery sector, estimated that it incurred one-off costs of EUR 120,000-150,000 in reformulating its products to include fully rather than partially hydrogenated oils. However, this reformulation enabled the company to supply ingredients with similar properties to its customers, thus avoiding the need for reformulation of their products. The principal reformulation costs were therefore met by the supply chain rather than the producers of consumer products in this case (see Box 1 below);

·In the UK, Allen et al (2015) 269 assumed that worst case industry costs for reformulation could be around £200m (EUR 224m), assuming that 8000 products would be reformulated at a cost of £25 000 (EUR 28,000) per product). The best case would be zero if reformulation is already built into the business model and occurs about every 18-36 months. Partial reformulation was assumed to lead to a proportionate scaling down of these costs;

·WHO (2015) commented that “proposals to limit the content of trans-fat in foods have generated negative reactions from industry in many countries. Common concerns include the high cost of reformulating product compositions and reductions in sales due to altered product properties. These concerns appear to contradict the experience gained in countries that have implemented trans-fat bans where industry representatives have declared that the financial impact of the ban is minimal. In addition, the development of suitable, cost-effective alternatives to foodstuffs containing trans-fat has progressed over the last 30 years and options for reformulation continue to increase. Evidence suggests that existing national bans have already driven product reformulation at the international level.” 270

Box 1 Role of the vegetable oil industry in driving change in the food sector in Canada

“Overall, our industry has developed formulations to allow bakeries, margarine companies, the food service sector, and virtually all food companies to provide products with no trans fats and, in most cases, lower saturated fat. To give you some details, today virtually every national fast-food outlet is using a trans-fat-free frying oil. Trans-fat-free, low-unsaturated-fat margarines now have the largest market share in Canada. Virtually all the large bakeries in Canada are using trans-fat-free formulations. Many of the facilities within our industry that produce hydrogenated oil, which is the source of trans fat, have either been closed or converted.”

Source: President and CEO of the Vegetable Oil Industry of Canada; interview with ICF

Industry associations gave mixed views to ICF. FEDIOL reported that, in order to reduce industrial trans fats content, the oils sector is required to invest in new equipment and R&D, and that this results in extra costs. IMACE advised that its members have continuously worked to develop and improve their products and that, as a result, reductions in trans fats content have been achieved through ongoing product innovation – alongside other product improvements and health goals. Costs have therefore been absorbed in the ongoing costs of innovation and progress to date is not thought to have incurred significant additional or identifiable costs. Food and Drink Europe, a representative body for the European food and drink industry, stated that the needs for reformulation varies by product, but that solutions can be found for any product, particularly through dialogue between food businesses and their fat and oil suppliers. This may entail changes in equipment and processes for certain products, particularly if moving from solid fats to liquid oils. HOTREC, an association representing hotels, restaurants, cafés and similar establishments in Europe, commented that it did not expect significant reformulation needs or costs for the catering sector, although there may be some changes in the ingredients purchased from the food processing sector.

Box 2 Dutch ingredient supplier – reformulation of ingredients for the bakery sector

A firm based in the Netherlands supplies ingredients to the bakery sector, such as bread improvers, bread and pastry mixes. In 2003, the company initiated a project to reformulate its products and replace partly hydrogenated oil with high levels of industrial trans fats content to fully hydrogenated oil with a industrial trans fats content below 2 %. The initiative responded to regulatory and customer demands, including the legislation proposed in Denmark and demands from large customers (supermarkets and producers of bakery products).

Fully hydrogenated oil remains solid at room temperature, a characteristic which is undesirable in the bakery industry where a soft texture at room temperature is a prerequisite for processing. This required products to be changed so that they would keep their soft texture while containing fully hydrogenated oil.

The project started in 2003 and ended in 2007, and ran parallel to similar projects executed by other large bakery ingredient producers. Although the research results were not exchanged amongst these parties, overall progress was reported to the Dutch Association of Manufacturers of Bakery Ingredients (NEBAFA, De Vereniging van Nederlandse Fabrikanten van Bakkerijgrondstoffen).

The available evidence in the examples given above therefore suggests that the costs of product reformulation are likely to vary widely, from zero to upwards of EUR 100,000, depending on the complexity of the product to be reformulated, the technical challenges involved, the extent of required changes in the production process, the position of the product in the supply chain, the timescale over which reformulation is required, and the degree to which changes can be addressed through ongoing product development activities.

Firms at the end of supply chains, such as small catering businesses, may be able to achieve compliance with industrial trans fats controls simply by purchasing alternative ingredients from their suppliers. The innovation challenge is likely to be concentrated on firms that are supplying products such as fats and oils into those supply chains. Their customers look to them to develop solution that retain the relevant functionality but lack the industrial trans fats content.

Data gaps and uncertainties preclude a robust assessment of the costs of reformulating food products. The possible scale of costs involved and the factors affecting them has been estimated by use of the following assumptions:

·Under Options 1a and 1b, businesses in countries with existing legislation (Austria, Denmark, Hungary, Latvia, Lithuania) are already compliant, and do not need to reformulate products. In other Member States, the proportion of food products exceeding the proposed 2% industrial trans fats limit varies between 1 % and 20 %, depending on the subsector and Member States concerned. 271 It is assumed that this proportion is higher in the Central and Eastern European countries, and in oils, fats and spreads; and lower in other parts of the EU and in other sectors (baked goods, confectionery, condiments/ seasonings, potato products, food service);

·The proportion of affected products which need to be reformulated (rather than merely changing ingredients) varies from 10 % in food service to 50 % in bakery and potato products and 100 % in the case of oils and fats, margarines and spreads, confectionery, and condiments and seasonings;

·Under Option 2, businesses are not directly required to reformulate their products, but some will do so in response to changing consumer demand. These costs will be incurred voluntarily, but will be necessary in order to secure the health benefits estimated above;

·Under Options 3a and 3b, businesses in all EU Member States would need to reformulate as a consequence of the partly hydrogenated oils ban. The extent of the reformulation required would be greater than that assumed under options 1a and 1b. There is uncertainty on the scale of the additional costs. The proportion of products in each subsector that require reformulation is assumed to be 20 % more under options 3a and 3b than under options 1a and 1b. It is also assumed that a much smaller proportion (between 0.2 % and 2 %) would be reformulated in the Member States that have already a 2 % industrial trans fats limit in place, recognizing that reformulation efforts have already taken place in those countries;

·Each affected business is assumed to need to change an average of three products, based on a similar assumption in the Latvian impact assessment;

·The average number of hours required for product redevelopment varies from 20 (fresh bakery goods, food service) to 100 for more complex processed products. This assumption is intended to reflect the wide ranging evidence of reformulation costs – some products will require no additional reformulation time, or can reformulate as part of ongoing product development programmes, while a small proportion may demand hundreds of hours of product redevelopment;

·The average cost of product development is estimated based on Eurostat data for labour costs, applying wage rates for professional, scientific and technical activities in the case of the food manufacturing sector, and accommodation and food service activities for the food service sector.

The above assumptions are designed to reflect the findings above that reformulation costs vary widely across the industry, and that some businesses will be able to reformulate costless while others will be required to devote significant resources to R&D.

The cost of reformulation is estimated for each option by multiplying the estimated number of businesses in each subsector and country subject to the new rules, the proportion of businesses in each subsector assumed to be required to reformulate their products, the number of products per business, the number of hours per product reformulation, and the wage cost per hour in each country and sector. Based on these assumptions, the cost of product reformulation is estimated as follows under the different options (Table 44).

Table 44 Compliance costs – costs of product reformulation (M EUR)

Policy option

Estimated one-off cost

Option 1a

1.9

Option 1b

9.8

Option 2

4.9

Option 3a

2.2

Option 3b

11.8

The cost of reformulation in Option 1b is based on the 2 % limit being applied to final products only. If the legislation was applied to all food products (including ingredients) it seems likely that the total reformulation costs would be higher as the set of solutions available to food business operators will be more constrained as a result of fats and oils with industrial trans fats levels above 2% being withdrawn from the market.

3.Costs of ingredients

One of the principal costs of action to limit industrial trans fats is the additional cost of ingredients for the food sector, as a result of the need to replace partly hydrogenated oils with more expensive alternatives. The external contractor found in his literature review and interviews limited evidence of the scale of these costs. However, the evidence available to ICF suggests that it is likely that the use of alternative fats and oils to reduce industrial trans fats will increase the costs of ingredients to the food industry.

·In the Netherlands, an ingredient supplier to the bakery sector estimated that reformulation of bread improvers, bread and pastry mixes had increased their price to the bakery sector by 2-3 %, but that the costs of these ingredients accounted for only 2-3 % of consumer product prices (suggesting extra costs of 0.04-0.09 % of the consumer price – see Box above).

·In Denmark, there is no evidence that any additional cost of ingredients has been significant enough to influence consumer prices. However, an interviewee reported that, in response to the legislation, some food businesses were forced to import oils in order to reduce the industrial trans fats content of their products, and that this had an impact on costs, at least in the short term.

·A margarine producer in Austria advised that substitution of partly hydrogenated oils with palm oil does not increase costs, because palm oil is at a similar price or even cheaper.

·In Hungary, the Federation of Hungarian Food Industries has reported that industrial fats with less than 2 % trans fats content are between 13% and 50% more expensive, and predicted that the additional costs of ingredients is likely to affect the price of products to the consumer. The actual impacts will only be clear when the legislation has been fully implemented, and that examples from other countries indicate that forecast price increases are not necessarily seen in practice.

·In Canada, the national competent authority advised that the Canadian Department of Agriculture funded a large amount of research on canola oil to develop non trans-fat alternatives. Once these variations were available, they were widely available to all businesses. While these alternatives were initially more expensive, their prices reduced significantly after two years. The President of the Baking Association of Canada stated that initially there was a higher cost for trans-fat alternatives, which caused some challenges for the industry.

·In the US, an ex ante cost benefit analysis of legislation to ban partly hydrogenated oils assumed that substitute ingredients for partly hydrogenated oils could cost an average of 25% more. 272

These costs may vary depending on the type of substitute oils and fats used. Discussions at a JRC workshop Trans-fatty acids in diets – Health and legislative implications suggested that substitution with palm oil may be cost neutral but that the use of new hard fats as a replacement for trans fats may increase the cost of ingredients, and require a longer term approach to the development of cost effective alternatives. 273

In order to assess the potential increased cost of food ingredients as a result of reductions in industrial trans fats in food products, the following assumptions were made:

·All products exceeding limits on industrial trans fats or partly hydrogenated oils will require a change of ingredients, substituting partly hydrogenated oils for alternative fats and oils;

·The proportion of different products requiring changes in ingredients is the same as the proportion requiring reformulation, as estimated in the previous sections of this Annex;

·Food ingredients account for 41 % of the value of output of the products affected 274 ;

·partly hydrogenated oils account for 5 % of the overall value of ingredients used in products currently exceeding the 2 % industrial trans fats limit;

·Substitute fats and oils are 25 % more expensive than partly hydrogenated oils. 275

In combination, these assumptions would mean that the substitution of partly hydrogenated oils for alternative industrial trans fats free fats and oils will increase costs for businesses supplying products which currently exceed the 2% industrial trans fats limit by 0.51 % of the value of their output.

The estimated costs of additional ingredients under each option are summarised in Table 45.

Table 45 Compliance costs – additional costs of ingredients (M EUR)

Policy option

Estimated annual cost

Option 1a

7.7

Option 1b

44.5

Option 2

22.3

Option 3a

9.3

Option 3b

53.7

These costs can be expected to recur annually, at least until new ingredients are developed that are equal in cost to partly hydrogenated oils.

4.Costs of labelling

Option 2 imposes costs on businesses by requiring pre-packaged food products to be labelled according to their trans fats content.

This option places obligations on all pre-packaged food businesses, whether or not their products contain trans fats, and therefore affects a wider range of food business subsectors than Options 1 and 3. However, food service businesses and suppliers of non-prepacked foods are excluded.

The drivers of the costs of labelling are:

·The number of food product labels that need to be changed to give information about the presence or absence of trans fats;

·The cost of each new label required; and

·The timescale over which the labelling obligation is introduced. Because most food labels are changed every few years, a longer phase-in of the labelling obligation will reduce costs, since there will be little or no extra cost in changing labels that were already due for renewal.

An impact assessment study by RAND Europe (2008) on food labelling estimated that:

·The number of food product labels in the EU27 = 26,894,250, covering a total of 14,755, 458 products;

·The cost of relabelling ranged from EUR 225 (small change) to EUR 7,000-9,000 (extensive redesign);

·37% of companies would change labels within 1 year, a further 26% within 2 years and a further 20% within 3 years; only 18% of labels would not be changed over 3 years.

Evidence collected from the study of the external contractor suggests that:

ŸIn the UK, according to the British Retail Consortium, a label change costs an average of £1000-1500 (EUR 1150 - 1725). Updating the nutrition panel constitutes a substantial change, since the whole label will need to be re-plated or re-designed to accommodate the extra line in the nutrition panel. 276

ŸIn the baking sector in Canada, the average cost per SKU (Stock Keeping Unit) for updating labels is 3000 Canadian dollars (EUR 2055), according to an interview with the President of the Canadian Baking Association.

ŸIn the US, the FDA estimates the average cost of relabelling at $7,000 (EUR 6,000) per label, if the change must be made in one year. It is estimated that, if producers are given two years to relabel rather than one year, the one-time costs of relabelling would fall by about 70 %, while a change over three years would reduce costs by 80%.

ŸThe food industry associations interviewed are all against the labelling option, because of the additional costs it would entail. For example, FDE commented that a new obligation to indicate trans fats level on food products would be a huge undertaking, similar to the Food Information for Consumers Regulation, and that entire management systems have to be changed. FEDIOL predicted an extra cost of several thousand Euros per product.

The potential costs of relabelling under Option 2 have been estimated using the following assumptions:

·Labelling is required for all pre-packed food products;

·Food product labels for 26,894,250 Stock Keeping Units will need to be changed (based on the RAND Europe estimate used in the impact assessment on general food labelling) 277 ;

·Labels need to be changed over a 2 year period. Based on the estimates by RAND Europe, 63 % of labels would be changed over a 2 year period, suggesting that an enforced change would be required for 37 % of food labels;

·The average cost per label changed is assumed to be EUR 1,000. 278

Based on these assumptions, the one-off cost of food labelling under Option 2 is estimated at EUR 9.9 billion (Table 46).

Table 46 Compliance costs – costs of relabelling (M EUR)

Policy option

Estimated one-off cost

Option 1a

-

Option 1b

-

Option 2

9,951

Option 3a

-

Option 3b

-



ANNEX 18: Administrative cost for public authorities

The principal administrative costs for public authorities in the Member States of the industrial trans fats control options will be:

·Establishing the policy – including communicating the new arrangements to businesses, handling enquiries, and establishing the necessary systems and processes for delivery;

·Consumer information campaigns, designed to raise consumer awareness of trans fats and their impacts on health. This will be particularly important for the labelling option;

·Inspection, monitoring and enforcement, including the costs of product testing and enforcement actions.

1.Costs of establishing the policy

Options 1b, 2 and 3b each involve the introduction of legislation. New rules are most likely to be in the form of new EU regulations, binding throughout the EU and not requiring secondary legislation at Member State level. Nevertheless, Member States' authorities will be involved in communicating the new rules to affected businesses in each country, providing advice to businesses where required, and handing enquiries. In addition, each Member State will need to establish the systems and processes necessary for ongoing implementation of the policy.

The scale of costs is difficult to estimate precisely. In order to estimate the possible scale of these costs, we assume that:

·For all legislative options (1b, 2, 3b), each Member State will devote staff time averaging one full time equivalent to establish and promote the policy and to handle enquiries from business, with the exception of Denmark, Latvia, Hungary, Lithuania and Austria for Option 1b;

·Staff time is valued using Eurostat labour cost data for professional, scientific and technical activities;

·There will be additional costs for overheads, publications, events and website materials. These are assumed to amount to 50% of labour costs;

·The costs of establishing a voluntary agreement (Option 1a and 3a) are assumed to be similar to those of introducing legislation, but are reduced in proportion to the number of businesses participating, and amount to 11-12% of the costs of establishing Options 1b and 3b.

The estimated scale of public administration costs is shown in Table 47.

Table 47 Public administrative costs – costs of establishing policy (M EUR)

Policy option

Estimated one-off cost

Option 1a

0.6

Option 1b

5.0

Option 2

6.0

Option 3a

0.7

Option 3b

6.0

2.Costs of consumer information campaigns

Available science suggests that, to be effective, a trans fats labelling initiative will need to be accompanied by a public education programme, which requires additional funding. 279

Option 2 – the mandatory trans fats labelling option – is likely to need to be supported by a campaign to raise consumer awareness of the health impacts of trans fats. This will help to inform consumers of the label changes being introduced, and the reasons for these labelling requirements, and will aim to provide information that will enable consumers to make informed choices about whether or not to buy products that contain trans fats.

Evidence suggests that many consumers are unaware of the trans fats issue 280 , such that introducing changes to labels alone may have limited effect on them. As well as helping to raise awareness among these groups, an information campaign would draw attention to the label changes and encourage consumers to compare the labels on different products.

An international review by the OECD 281 estimated the costs of information campaigns to tackle obesity. The costs of interventions vary widely depending on the media used. Costs per individual targeted ranged from USD 2.27 (EUR 1.92) for mass media campaigns to USD 77.13 (EUR 65) for workplace interventions and USD 112.95 (EUR 96) for schools based initiatives. Averaged across the population `as a whole, the costs per individual ranged from USD 1.80 (EUR 1.52) for mass media campaigns to USD 4.51 (EUR 3.82) for worksite interventions.

The costs of an information campaign on trans fats would depend on the type of intervention employed. The JRC assumed that a full suite of interventions would be employed, including a mass media campaign, physician counselling, and interventions in schools and workplaces32. The net costs of these actions are not given separately in the paper, but the model suggests recurrent costs amounting to many billions of Euro over time.32

If it was assumed that the labelling option was accompanied by a mass media campaign, focused in those EU Member States where legislation is currently lacking, and designed to reach the quarter of the EU population most vulnerable to the health impacts of industrial trans fats consumption, and using the per capita cost of USD 2.27 (equivalent to EUR 2.15 at 2017 prices) estimated by Sassi et al, and multiplying this across 25 % of the population of 481 million of the 23 Member States currently lacking legislation, a mass media campaign designed to raise awareness of trans fats across the EU would involve a one-off cost in the order of EUR 260 million across the EU28.

No such costs would be incurred under Options 1b or 3b, as the introduction of legal limits on industrial trans fats or a ban on partly hydrogenated oils would obviate the need for an information campaign.

There would be a case for backing a voluntary agreement (Option 1a or 3a) with an information campaign, as raising consumer awareness and concern about industrial trans fats would increase the incentive for businesses to enter the agreement. However, alternative means of incentivising uptake, such as the threat of legal action to eliminate trans fats, could be employed. Information campaigns might also be carried out by industry bodies.

Table 48 Public administrative costs – costs of information campaign (M EUR)

Policy option

Estimated one-off cost

Option 1a

-

Option 1b

-

Option 2

258

Option 3a

-

Option 3b

-

3.Costs of monitoring and enforcement

The options involving legislation (Options 1b, 2 and 3b) will each require the public authorities in each Member State to devote resources to monitoring compliance and enforcing the rules. Available evidence collected by the external contractor, though limited, gives some indication of the resources likely to be needed for monitoring and enforcement:

·In Latvia, the Food and Veterinary Service estimated that it will need EUR 86,000 to conduct additional controls and to commission laboratory tests in 2018. This cost was estimated to fall to EUR 63,000 annually from 2019. The figures are based on plans for 1,000 inspections and 100 product tests in 2018, representing 13 % and 1.3 % respectively of the 7800 establishments estimated to be possible using fats containing trans-fatty acids.

·In Canada, the director of the Trans Fat Monitoring Programme estimated that the administrative burden of monitoring arrangements linked to voluntary reformulation measures and labelling requirements had amounted to millions of Canadian dollars annually, and was likely to have greatly exceeded the costs of a regulatory approach. As well as in-kind support provided by the Canadian Heart and Stroke Foundation, the programme had funded three regional laboratories and employed several staff members for three years, including a research scientist, three chemists and a senior policy officer at Health Canada. Other costs include laboratory instruments, and the purchase of market/sales data at a cost of C$ 500,000. Ratnayake et al (2009) 282 argued that the costs of monitoring the voluntary reformulation policy were likely to have exceeded those of enforcing a trans-fat ban, because of the relatively complex measurement of population trans-fat intake required.

·In the US, a paper by Hendry et al (2015) 283 argued that the cost of monitoring and evaluating a labelling policy includes costs associated with product and population-intake analyses, and that a labelling policy is likely to be the most costly to implement effectively.

The costs include:

·The time taken by the authorities to monitor and inspect foods for industrial trans fats content or labelling;

·The time and costs of commissioning laboratory tests on food products; and

·The time taken to undertake enforcement actions.

In order to estimate these costs, it is assumed that:

·10 % of businesses undergo regulatory inspections in the first two years of the new policy, and 5 % thereafter. This compares with plans in Latvia to inspect 13% of businesses in the first year;

·Each inspection requires an average of 1 hour of officer time. Labour costs are estimated using Eurostat data for public service activities in each Member State;

·Samples are taken for testing from 1 % of establishments each year (compared to plans for 1.3 % in Latvia annually);

·Each product test costs EUR 75 for the authorities to commission;

·1 % of products require action by the authorities annually, by means of a notice and/or subsequent enforcement action, with each taking an average of 10 hours of officer time.

The costs of monitoring compliance with a voluntary agreement (Option 1a and 3a) are assumed to be similar to those of monitoring compliance with legislation, but are reduced in proportion to the number of businesses participating, and amount to 11-12 % of the costs of monitoring and enforcement for options 1b and 3b.

Table 49 shows the estimated costs of monitoring and enforcement activities under the different options.

Table 49 Public administrative costs – monitoring and enforcement costs (M EUR)

Policy option

Years 1-2

Year 3 onwards

Option 1a

0.7

0.4

Option 1b

6.1

3.4

Option 2

1.5

0.8

Option 3a

0.7

0.4

Option 3b

6.5

3.6

Higher costs are estimated for Options 1b and 3b than Option 2, given the large number of food service businesses excluded from that option. The costs of Option 3b are estimated to be slightly higher than those of Option 1b, since the costs of monitoring and enforcement are assumed to extend to those countries which currently have a legal limit on industrial trans fats but for which an outright ban on partly hydrogenated oils would need to be enforced.



ANNEX 19: Assumptions for the impact assessment on consumer prices

Increases in costs to food businesses would be expected to be reflected, at least partly, in increases in the price of food products to the consumer.

The extent of changes in food prices will depend on:

·The scale of the additional costs to the food industry; and

·The degree to which additional costs are absorbed within the food chain (resulting in lower business profits) rather than passed on to consumers.

Other things being equal, the policy options with higher costs on business would be expected to have a greater effect on consumer prices. Analysis in the section 6.2.1 suggests that Option 2 would have the highest cost for business, followed by Options 3b, 1b, 3a and 1a.

The ability of food businesses to pass cost increases to the consumer through higher prices depends on the intensity of competition in the industry. This may vary between food business subsectors and individual firms. The ability to pass on costs will depend on the willingness of consumers to pay higher prices and, in the retail supply chain; retailers will have an important role in determining whether price increases are accepted. The degree of international competition is also an important factor – producers are more likely to have to absorb extra costs if products can easily be substituted with imports.

Interviewees of ICF in trade associations gave mixed views about the effect of increased costs on consumer prices. While FEDIOL predicted that additional costs will be passed on to consumers, both CAOBISCO and Food and Drink Europe indicated that prices in their subsectors are largely set by retailers, and that any increase in costs would have to be absorbed by the industry. There would be a challenge for producers to reformulate products and source alternative ingredients as cost-effectively as possible, or to find cost savings elsewhere.

The evidence collected by ICF suggests that products containing industrial trans fats tend to be cheaper than industrial trans fats-free alternatives in national markets before the sector goes through the kind of supply chain transition that legislation and strong voluntary action supports. Furthermore it would appear that more expensive products have been reformulated earlier than cheaper ones. For example:

·In Canada, an analysis in 2002 found that margarines that were labelled as “trans fat free” cost $4.62 per kg and those that were not “trans-fat free” “cost $3.05 per kg. In comparison, in 2006 those that were “trans-fat free” cost $5.10 per kg and those that were not “trans-fat free” cost $3.55 per kg. Similar research indicates that nutritionally improved products tend to be higher in price” 284 ;

·A 2014 study looking at the changing trans fat content and price of cookies in the US and Canada 285 concluded that price was significantly related to the presence of trans fat in cookies: trans-fat free cookies were more expensive than those with trans fats. Median price per 100 grams was US$ 0.75 (interquartile range: US$ 0.46, US$ 1.48) in US cookies containing trans fat as compared to US$ 1.36 (interquartile range: US$ 0.82, US$ 2.66) in cookies without trans fat (p<.001);

·In the EU, levels of industrial trans fats in food tend to be higher in lower income Member States in Central and Eastern Europe which might be more expected to be price-sensitive;

·These observations are consistent with evidence above that partly hydrogenated oils tend to be cheaper than alternative ingredients free of industrial trans fats. However, it may also be that these differences in prices are linked to marketing strategies from the food industry, targeting different products at different socio-economic groups.

While this evidence collected by ICF suggests that industrial trans fats tend to be found in cheaper products, it does not necessarily mean that efforts to reduce them will increase product prices. However, it does at least suggest that there may be challenges to reformulate products and to source alternative ingredients cost-effectively if prices are not to increase.

Available evidence suggests that reductions in industrial trans fats have had limited effect in increasing consumer prices in the EU to date. For example:

·In Denmark, a recent report suggests that there was no increase in the price levels of the affected products. The product supply to the Danish market also appears not to have been affected. The Danish industry did not complain about financial losses following the industrial trans fats limit. 286

·IMACE reports that no impact on the price of products has been identified to date in its sector, even though industrial trans fats have largely been eliminated.

·The Dutch ingredients supplier to the bakery sector, reported above, indicated that reformulation of bread improvers, bread and pastry mixes required substantial effort and investment, but that, even if fully passed on to consumers, these costs are only likely to have increased prices by 0.04-0.09 % (see Box 2).

·However, an Austrian margarine producer indicated that there was probably an initial price increase in the order of 8-12 % following reformulation. No statistics are available. The interviewee commented that consumer prices are always dependent on the broader market situation. The price effect would have been influenced by the replacement oil used (palm, rapeseed, sunflower).

Overall, therefore, while some upward pressure on prices may be expected as a result of the increased costs resulting from action to reduce industrial trans fats, any effect on prices may often be too small to be observable in practice.



ANNEX 20: Evidence collected by the external contractor concerning the assumptions for the impact assessment on product attributes

The EU food sector now has experience in trans-fat replacement – in both the development of substitute fat/oil products and the use of those substances in the preparation and manufacture of final products. This experience is transferable across countries and within supply chains and should make the further reduction of trans fats more straightforward for countries now making the transition than it was for the first jurisdictions that acted in 2003.

In an interview of ICF with the VP of Food and Consumer Products of Canada, an association representing the food manufacturing industry in Canada, stated that, “Despite significant investment by industry, government, and academics, challenges still exist to find the appropriate substitute ingredients for some products and to ensure that reformulated and new products meet consumers' expectations for taste, texture, and quality”.

In the US, a number of concerns were expressed about the impact of local limits on trans fats and partly hydrogenated oils on the price and attributes of food in restaurants. However, the data show that most of these concerns have been refuted. Consumers have apparently not missed the presence of trans fat in food restaurants; sales of French fries, donuts, and other fried, formerly trans fats containing fast foods have not decreased significantly in the localities that have implemented trans fats bans; and the costs of switching to trans fats-free alternatives have not resulted in higher restaurant prices. In addition, trans fats-free alternatives have been readily available to restaurants because cooking oil and seed companies anticipated the shift away from hydrogenated oils years before trans fats bans went into effect. Companies began investing in research and accelerating production of trans fats-free alternatives in the 1990s, when the first major studies were released revealing the health risks of trans fat consumption. 287

Some food products and sub-sectors appear to experience greater challenges than others. For example, substitution of oils and fats for frying appears to be achievable relatively easily and with limited effect on quality and taste, but with potential implications for cost. On the other hand, producers of baked goods report greater challenges in finding alternative ingredients and formulations which replicate the attributes of their products. The evidence collected by ICF suggests that these challenges would be greater in the context of a legal ban on partly hydrogenated oils (Option 3b) than under legislation imposing a 2% limit on industrial trans fats content in food products sold to consumers (Option 1b), particularly for the use of additives (for example in chocolate coatings). There is uncertainty on the scale of the reformulation challenges posed by a partly hydrogenated oils ban compared to a legal limit on industrial trans fats content.



ANNEX 21: Expected impact of each option on the Internal Market

The Inception Impact Assessment 288 cited concerns about the Internal Market as one of the main reasons for taking action at EU level:

“The fact that some Member States have taken action on industrial trans fats while others have not results in no single level playing field for business in the EU, creates conditions of unfair competition and hampers the effective functioning of the Internal Market: food business operators active in countries where no limit on industrial trans fats exists have no related reformulation costs and are therefore at a competitive advantage vis-à-vis operators active in countries where legal limits exist or operators abide by self-regulatory commitments. This is particularly relevant for operators active in different Member States. At the same time, operators active in countries where no limit on industrial trans fats exists are negatively affected by the legal uncertainty over whether/when/how new initiatives to reduce industrial trans fats intakes will be adopted at national level (e.g. in the absence of legal certainty over future regulatory developments, operators might have difficulties in planning R&D investments). This also negatively affects competition among operators active in different parts of the Internal Market.”

Neither the literature review nor the stakeholder consultations found firm evidence that national action on industrial trans fats has impacted on the functioning of the Internal Market so far.

Denmark faced some criticism that its action to impose limits on industrial trans fats content in foods represented a trade impediment, by banning the sale of imports of products containing industrial trans fats exceeding the new limit. 289 It was argued that Danish products could therefore have an advantage relative to imports. No data has been found to substantiate such claims.

It seems clear that higher national standards could – in theory at least – limit imports into the relevant national markets. On the other hand, the scale of this problem is unclear, given that levels of industrial trans fats in food have been falling across the EU, that multinational food companies that are active in many national markets are at the forefront of action to reduce industrial trans fats, and that higher levels of industrial trans fats are arguably more likely to be found in products manufactured and sold by smaller businesses into domestic markets. There is evidence collected by ICF, however, that large players in some Member States have been developing new products with industrial trans fats levels that are widely distributed in supermarkets, alongside other products that are low in industrial trans fats levels (Stender et al. 2016). 290 Furthermore, given concern about the health impact related to consumption of products containing high levels of industrial trans fats, there seems little case for promoting their movement within the EU, such that the case for harmonisation would involve raising standards across the EU to those countries which have already imposed limits.

With regard to potential cost impediments for producers obliged to meet higher standards, there is limited evidence to suggest that this has been a problem for those countries that have acted to date. Evidence collected by ICF suggests that costs and impacts on pricing have been small, while industrial trans fats many competitors across the EU have taken action to limit industrial trans fats, even in those markets where no national standards exist at present. However, there is growing evidence of products from a similar category but with very different levels of industrial trans fats content being sold together within a single Member States. Thus Stender et al. (2016) have documented how large manufacturers and retailers in several Southern Eastern European countries (including Croatia and Slovenia) have increased the variety of packaged products with high industrial trans fats content (which would be illegal under a 2% limit). In parallel, the variety of packaged products with low industrial trans fats content has also increased in those countries. 291 There are also concerns (raised among by stakeholders consulted for this study) that, in the absence of an EU-wide legislative measure products manufactured outside the EU with ingredients high in industrial trans fats content might still enter the Internal Market, leading to further unfair competition.

Such issues have been raised by an Austrian margarine producer, which has reported a difference in market conditions in different parts of the EU. In West and Central Europe, action to limit industrial trans fats has been widespread, evening out any potential cost disadvantages for producers in those countries that have introduced legislation. However, producers with higher standards are disadvantaged in Eastern Europe, where cheaper margarines are still on the market. One advantage of the legislation is that it has helped to enhance the image and reputation of the margarine sector.

There are also growing concerns (which were heeded by respondents to the validation consultation for this study) that some manufacturers may be selling different versions of a given product in different Member States, some of which may present high industrial trans fats content and others low industrial trans fats content. While the ICF study team has not been made aware of evidence that demonstrates dual quality relative to levels of industrial trans fats content in food products, a legislative measure to impose a shared standard across the EU could provide additional protection to consumers across the EU against the risk of dual quality and unequal protection against the risks of a high industrial trans fats intake.

Some of the stakeholders interviewed expressed support for action at EU level to harmonise standards on industrial trans fats across the EU. For example, FEDIOL told us that the different rules implemented across EU countries lead to possible trade and Internal Market issues. For this reason FEDIOL has (since 2014) advocated an EU limit at 2% trans fats on fat basis in the products intended for the final consumer together with the deletion of the existing hydrogenation labelling. FEDIOL argues that this will level the playing field for industry and address concerns relating to the trans fats issue in the EU market.

Seven Member States 292 have introduced or notified legislation to limit industrial trans fats in food products, others as well as some sectors have not yet acted or have introduced voluntary initiatives and standards.

Differences in product standards between Member States can distort the free movement of goods within the EU. National rules may impose higher costs on national operators, affecting competition in the market as a whole. They may also restrict access to domestic markets for producers in countries which do not adhere to the same standards.

Harmonising product standards for industrial trans fats across the EU could help to improve the operation of the Internal Market by reducing existing barriers to trade caused by differences in national legislation and preventing new barriers from future national action in Member States that are dissatisfied with the present situation. In the absence of legal action at EU level, future national actions are likely, leading to further differences in standards across the EU.

Overall, it may be anticipated that those options that impose mandatory legal limits across the EU will have the effect of harmonising standards, improving clarity and simplifying the Internal Market. The impacts on current patterns of trade are expected to be modest.

Table 50 Expected impact of each option on the Internal Market

Policy option

Expected impact

Comments

Option 1a

(+)/(-)

Small impact, unclear whether positive or negative. Existing differences in legal standards will remain. Voluntary standards will be extended towards the legal limits existing in 5 countries. However, variable uptake could lead to varying rates of progress and compliance in different Member States.

Option 1b

++

Significant, positive impact. Harmonisation of standards ought to remove industrial trans fats regulation as a factor contributing to differential operating conditions for firms in the Internal Market and avoid the legal complexity arising from differences in Member State law on this issue.

Option 2*

0

No change. No effect on product compositional standards, though the uniform requirement for transparency on industrial trans fats content provides information to facilitate informed consumer choice. Consumers not protected from high industrial trans fats products. Firms producing in countries that have imposed industrial trans fats limits may continue to face additional ingredient costs as compared to equivalent producers in other Member States.

Option 3a

(+)/(-)

Small impact, unclear whether positive or negative. Existing differences in legal standards will remain. Voluntary standards will aim to extend efforts to reduce industrial trans fats across the EU. However, variable uptake could lead to varying rates of progress and compliance in different Member States. In addition, focusing voluntary action on eliminating partly hydrogenated oils, when legislation in four countries places limits on industrial trans fats, could cause confusion.

Option 3b

+(+)

Significant, positive impact via harmonisation of standards. EU legislation would differ from that in 7 Member States (given focus on partly hydrogenated oils ban rather than industrial trans fats limit), potentially creating some confusion and requiring harmonisation of existing national rules.

Note: scale of - - to + + indicates a range of strongly negative (- -) to strongly positive (+ +) impacts, with ‘0’ being neutral.



ANNEX 22: Details on the expected impact of each option on competitiveness and international trade

Table 451 Expected impact of each option on competitiveness and international trade

Policy option

Expected impact

Comments

Option 1a

Small

Voluntary action will position EU companies to exploit export markets where there is legislation limiting industrial trans fats

Additional costs may be a disadvantage in price sensitive export markets

Potential for increased competition from low cost imports

Option 1b

Small

Legal limits will position EU companies to exploit export markets where there is legislation limiting industrial trans fats

Additional costs may be a disadvantage in price sensitive export markets

Option 2*

Small

Labelling requirement would apply equally to EU production and imports in domestic market

Labelling may help to raise awareness of risk of high trans fats imports

Option 3a

Small

As for option 1a

Option 3b

Small

As for option 1b



ANNEX 23: Evidence on the impacts on SMEs and expected impact of each option on SMEs

The Federation of Hungarian Food Industries notes that the number of SMEs in the affected sectors is particularly high. It suggests that the obligation to reformulate their products might be particularly demanding, as they often struggle from lack of specialist knowledge, information, financial flexibility and means.

The EU project SALUX, targeting reformulation in SMEs in 12 Member States indicates that small enterprises are less active in reformulating their products 293 , and that SMEs might face greater challenges in given their smaller size. The barriers faced by SMEs in reformulating foods for health reasons are stated to include a lack of process knowledge; the high costs of reformulation (alternative ingredients, processing, training, etc.); category/products-specific process; change in product characteristics, quality and safety; lack of legislation; protected production constraints; need for “clean labels”; and that few health claims are permitted. 294

These concerns are mirrored by international experience. In the US, a number of comments provided in response to the FDA’s 2015 final determination on partially hydrogenated oils noted the challenges faced by small businesses. Examples given included difficulties in securing access to alternative oils, inability to compete for supply, fewer resources to commit to research and development, and effect of ingredient costs on growth of the business. Another respondent claimed that small businesses would need at least five years to adapt due to their limitations in research and development expertise, inability to command supply of scarce ingredients, and economic pressures of labelling changes.

SMEs were less engaged than larger companies in the voluntary reformulation measures adopted in Canada, according to the NCA interviewee. The Canadian Department of Agriculture has a mandate to support SMEs with reformulation and the National Sciences and Engineering Research Council also supported different sectors/categories that faced particular problems. One interviewee suggested that SMEs were largely “followers” rather than “leaders”. Most of the research and development and recipe testing for reformulation was done by the large multi-national companies and SMEs would then copy the format of these reformulated products, rather than spending money on their own research and development. This made the transition less costly for SMEs than might have been assumed.

According to the President of the Baking Association of Canada, SME costs were not out of line with those of larger producers. It was suggested that the main problem for SMEs was finding the in-house technical resources and time to do the reformulation.



ANNEX 24: Evidence on substitutes for partly hydrogenated oils, environmental impacts of palm oil as well as environmental impacts of alternatives; expected impact of each option on the environment

Substitutes for partly hydrogenated oils

The principal source of industrial trans fats in food is partly hydrogenated oils, including soybean, cottonseed and other liquid oils.

There are a range of possible replacements for partly hydrogenated oils, including oils produced by modified hydrogenation, modified oils, butter and animal fat, natural saturated oils such as palm and coconut oil, natural unsaturated vegetable oils (olive, canola, corn or soy oil) and non-fatty texture-building substances (such as plant fibre or whole oats). Saturated fatty acids, particularly palm oil, are often used in reformulating bakery foods, while unsaturated fats are normally used for replacing trans fats in reformulating fried foods. 295

Palm oil is an attractive substitute for industrial trans fats, both in hard fats and spreads, because of its properties, especially its natural stability, and its cost effectiveness. Consultees in the food industry, including IMACE and FEDIOL, confirmed that palm oil can be a good replacement for partly hydrogenated oils, on account of its functional benefits, but that it is only one of the options available. However, according to a margarine producer in Austria, consumer resistance to the use of palm oil has increased in the last 10 years, making it a less attractive substitute, such that further reformulation of products currently containing palm oil is now taking place.

Evidence from Denmark, after the introduction of the trans-fat ban, indicates that saturated fats (including palm oil) were the main replacement in 66 % of products. 296

Similarly, in Canada, the President of the Baking Association advised in interview that in the baking industry, pre 2002, most oils used were vegetable oils but now they have primarily been replaced with palm fats and oils. Most of the trans fat-free alternatives being used by the baking industry come from palm oil.

The use of palm oil as a partly hydrogenated oils substitute needs to be viewed in the context of general trends in palm oil use by the food sector and concerns about its environmental impacts. For example, the Netherlands is the largest importer of palm oil in the EU. After a small increase from 2011 to 2012, there has been a slow but steady decline in the total use of palm oil in the food and feed industry (from 385,000 kg in 2011 to 279,804 kg in 2015) and a much larger increase in use of sustainable palm oil as a proportion of the total amount of palm oil. This decline in palm oil demand has occurred at the same time as voluntary measures to reduce industrial trans fats in the food chain.

In the EU as a whole, after a decade of strong growth in palm oil consumption in the EU in the 2000s, demand has been stagnating since 2014. BMI Research forecasts this trend will continue to 2021. The two main growth drivers for palm oil consumption - namely the expansion of palm oil in food manufacturing and the growth of biodiesel consumption in the region - are coming under growing pressure. BMI Research forecasts that the EU's palm oil consumption will decline by 0.3 % on average annually between 2017 and 2021 to reach 6.5 million tonnes, compared with the 5.2 % annual growth rate recorded over the past 10 years. 297 However, global demand for palm oil is forecast to continue to grow strongly.

Consultees in the food industry, such as FEDIOL and IMACE, stressed that their members had already taken action to eliminate industrial trans fats, using palm oil and other alternatives, and that they did not expect a major increase in demand for palm oil as a result of future policy.

Environmental impacts of palm oil

Any increase in palm oil production would be a cause for concern, since the expansion of palm oil plantations has led to large scale deforestation, with major impacts on biodiversity and climate. A recent European Parliament 298 report and subsequent resolution 299 noted that:

·Cultivation of palm oil over the last 20 years has been the cause of 20 % of all deforestation 300 ;

·Tropical ecosystems, which cover 7% of the Earth’s surface, are under increasing pressure from deforestation and the establishment of palm oil plantations, resulting in forest fires, the drying up of rivers, soil erosion, loss of groundwater, pollution of waterways, destruction of habitats, loss of ecosystem services, and adverse impacts on the global climate;

·Numerous species have been adversely impacted by palm oil production, including the Sumatran rhinoceros, Sumatran tiger and Orangutan;

·Companies trading in palm oil are generally unable to prove with certainty that the palm oil in their supply chain is not linked to deforestation.

In a response to the European Parliament resolution, the European Commission noted that palm oil can play an important role in the economies of producing countries and that the causes of deforestation are complex. The Commission stressed the importance of considering all agricultural drivers of deforestation, including soy, beef, cocoa and coffee.

Europe was the largest consumer of ‘imported deforestation’ in the period 1990-2008 and in 2008 committed to reduce deforestation by at least 50 % by 2020 and halt global forest cover loss by 2030. Palm oil is one of the large scale agricultural crops that have a contribution to the ongoing deforestation. The EU imported in 2014 close to 9 million tonnes of palm oil and about 0.7 million tonnes of palm kernel oil, representing around 12 % and 10 % respectively of the total world production. It is estimated that around 45% are processed by the food and feed industry, while 55 % are used in energy and in industrial applications. 301

The use of palm oil does not always come at the expense of tropical deforestation. Initiatives and voluntary certification schemes have been established to encourage sustainable palm oil cultivation. For example, the Roundtable on Sustainable Palm Oil (RSPO) now has 2500 members worldwide, representing all links along the palm oil supply chain, who have committed to produce, source and/or use sustainable palm oil certified by the RSPO. Nevertheless, while unsustainable practices remain widespread in the palm oil industry, any increase in usage could have significant environmental effects.

The European Commission commissioned a study on the environmental impact of palm oil consumption and on existing sustainability standards. The ICF study has collected extensive evidence of palm oil production and consumption, its environmental, economic and social impacts, and of certification schemes.

Data from the study suggest that approximately 20 % of palm oil output is certified, although only around half of this (10 % of world production) is sold as certified palm oil at premium prices. The remainder of certified production is sold as non-certified. There is currently excess supply of certified palm oil: more is available than consumers are prepared to pay a premium for. Since the EU accounts for about 10 % of overall palm oil demand, EU demand could be met wholly through certified production, if consumers were prepared to pay a price premium. A clear distinction needs to be made between new clearance of forests for palm oil production, and palm oil produced from previously cleared forests.

Consultees in the food industry argued that the sector is taking action to source ingredients sustainably, and that reformulation using palm oil need not have negative impacts on the environment. For example, FEDIOL emphasised the actions of its members to source raw materials sustainably, irrespective of their botanical origin, and stressed that members are heavily involved in actions to ensure the sustainability of palm and soy. The percentage of certified sustainable palm oil used by FEDIOL members has continued to increase over time, reaching 60 % at the end of 2016, albeit with a slower growth rate compared to the previous year. 302 7.2 million tons of palm oil were imported into the EU in 2016, of which about 50% were refined by FEDIOL companies. 303

Similarly, IMACE stressed that the margarines and spreads industry is committed to using sustainable palm oil, such that increased use of palm oil should not lead to deforestation. AIBI, CAOBISCO, FEDIMA, FEDIOL and IMACE are members of the European Sustainable Palm Oil Advocacy Group which aims to support the uptake of sustainable palm oil in Europe and to communicate scientific and objective facts and figures on environmental, nutritional and functional aspects.

In the US, the Final Determination regarding partly hydrogenated oils concluded that:

“We have carefully considered the potential environmental effects of this action. We have determined, under 21 CFR 25.32(m), that this action “is of a type that does not individually or cumulatively have a significant effect on the human environment” such that neither an environmental assessment nor an environmental impact statement is required”. 304  

Environmental impacts of alternatives

A consultee at LMC International stressed that, though palm oil plantations have caused deforestation and contributed to climate change; it is too simplistic to argue that palm oil is more environmentally damaging than alternatives. It should be noted that alternatives, such as soybeans, can also be environmentally damaging.

Palm oil has the advantage of very high rates of oil yield per hectare, meaning that the amount of land and other inputs required for its production are comparatively low. Soy beans, by contrast, comprise approximately 80 % protein meal to 20 % oil. This reduces oil yield per hectare and means that any attempt to substitute palm with soy would generate excess quantities of protein meal, depressing world prices. Soy is also one of the most significant drivers of deforestation. Estimates on the leading causes of deforestation vary between sources, with beef, soy and palm oil deemed response for a third of all recent deforestation in one estimate and 80 % in another. 305 All three are regarded as key drivers of deforestation, however, and land clearance causes biodiversity and climate impacts whatever is planted.

Furthermore, alternatives to palm oil (soy, rapeseed and canola) are often genetically modified, which is not popular with consumers.

Table 52 Expected impact of each option on the environment

Policy option

Expected impact

Comment

Option 1a

Smaller than 1b; could be positive or negative

Net effect unclear because soy and palm oil both contribute to deforestation; sustainability of sourcing is an important factor

Impact likely to be smaller than 1b because of smaller scale of change

Option 1b

Potentially significant; could be positive or negative

Net effect unclear for reasons given above

Impact likely to be greater than for voluntary or labelling options

Option 2*

Potentially significant, negative

Net effect unclear for reasons given above

Impact likely to be smaller than 1b because of smaller scale of change

Option 3a

Smaller than 3b, could be positive or negative

Net effect unclear for reasons given above

Impact likely to be smaller than 1b because of smaller scale of change

Option 3b

Potentially significant; could be positive or negative

Net effect unclear for reasons given above

Impact likely to be greater than for voluntary or labelling options



ANNEX 25: Impacts of combined options

Additionally, impacts of certain combinations of options have been investigated. These are:

·Combining mandatory labelling with legislation (Options 2 and 1b or 2 and 3b);

·Combining mandatory labelling with voluntary agreement (Options 2 and 1a or 3a).

1.Combining mandatory labelling with legislation (2 + 1b or 2 + 3b)

Social impacts

Any additional benefit of adding labelling requirements to a legal limit on industrial trans fats or a ban on partly hydrogenated oils is expected to be limited.

As discussed before, options 1b and 3b are expected to have the greatest effect on industrial trans fats intake, delivering the largest savings in healthcare costs and the highest reduction in disability-adjusted life years. Combining one of the two options with labelling will not have a significant additional impact on the population industrial trans fats intake, which will already be reduced to very low levels under Options 1b and 3b. There are theoretical direct and induced effects arising from consumers having a preference for industrial trans fats content closer to zero than the 2 % legislated threshold.

Economic impacts

Some of the costs of combining labelling with legislation will be additive, while others will overlap between the two options. For example, some of the administrative burdens and many of the costs of product testing, reformulation and ingredients will be shared between the two options.

Based on an assumption made by the external contractor ICF that the overall costs of each of the types of action required by a combination of the two options is equivalent to the greater of the costs of the two individual options, the overall costs are estimated as follows.

Table 53 Present value of total costs of implementing combinations of options over 10 years (M EUR)

Policy option

Business administrative costs

Business compliance costs

Public administrative costs

Total costs

Option 1b + 2

17.8

9,568.8

250.6

9,837.2

Option 3b + 2

18.7

9,568.8

250.6

9,838.2

Option 1a + 2

6.7

9,568.8

250.6

9,826.2

Option 3a + 2

6.7

9,568.8

250.6

9,826.2

Because all of the four combinations of options include Option 2, which has high costs of relabelling, product testing and awareness raising, each combination of options also has high costs.

2.Combining mandatory labelling with voluntary agreement (2 + 1a or 2 + 3a)

Social impacts

Combining labelling requirements with a voluntary agreement to limit industrial trans fats or partly hydrogenated oils is likely to deliver greater added value than a combination of legal limits and labelling.

As discussed above, options 2, 1a and 3a are expected to deliver weaker benefits in terms of health-related costs and disability-adjusted life years than options 1b and 3b. Combining a voluntary agreement with labelling may be expected to have a higher impact in reducing the population industrial trans fats intake and will lead to greater cost savings and disability-adjusted life years reduction than adopting only one of the two options.

The model assumes that when combining options 2 and 1a or 3a the industrial trans fats intake from packaged food decreases by 50 % after two years (model assumption for option 2) and additionally the industrial trans fats intake would decrease by 10% for non-packaged food after 3 years (model assumption for options 1a and 3a) and then evolves as assumed in each of the three baseline scenarios.

Table 54 illustrates the cost savings resulting from combining the assumptions for industrial trans fats intake of the two options together with those resulting from each option compared to the baseline scenario (main scenario 15 years). They are calculated by subtracting a given policy healthcare costs to the baseline ones.

Table 54 Health-related savings compared to baseline by policy option (M EUR)

Policy option

Total healthcare savings

Option 1a

11,078

Option 1b

94,008

Option 2

15,353

Option 3a

11,078

Option 3b

94,008

2 + 1a or 2 + 3a

19,248

According to these estimates, the two combinations of options (1a + 2, 3a + 2) are expected to deliver greater savings in healthcare costs compared to options 1a, 2 or 3a separately. However, these benefits are significantly less than those delivered by Options 1b and 3b.

Table 55 presents the estimated number of disability-adjusted life years avoided by combining the two options, compared to the baseline scenario (main scenario 15 years). They are calculated by subtracting a given policy disability-adjusted life years to the baseline ones.    

Table 55 Disability-adjusted life years averted by policy option (million)

Policy option

Total disability-adjusted life years averted

Option 1a

0.7

Option 1b

6

Option 2

1

Option 3a

0.7

Option 3b

6

2 + 1a or 2 + 3a

1.3

Options 1b and 3b lead to the highest reduction in disability-adjusted life years. However, the combination of options (2 with 1a or 3a) is estimated to avoid 1.3 million disability-adjusted life years, which is higher than the estimates for Option 2, 1a or 3a alone.

It was the view of most stakeholders consulted on this study that combining labelling with legally binding actions or voluntary agreements would not produce higher social benefits.

Economic impacts

The estimated costs of combining Options 1a and 2, and 3a and 2, are given in Table 45 above. These costs are high compared to Options 1b and 3b, as a result of the high relabelling and promotional costs of Option 2.



ANNEX 26: Further details for appraisal of General objective 1 specific objective 1

1.Additional details for section 7.1.1 on direct health impacts

Table 56 Appraisal of options’ performance in relation to General Objective 1: Health gains by option under different variants of the baseline scenario (total disability-adjusted life years gained, million)

Variant of the baseline scenario

Option 1a

Option 1b

Option 2

Option 3a

Option 3b

B1 – 10 year elimination

<0.4

4

< 0.7

<0.4

4

B2 - 15 year elimination

<0.7

6

<1

<0.7

6

B3 - No change

<10

66

<34

10

66

Source: ICF. Note: ‘<’ indicates that the figure shown is regarded as an upper estimate of the likely impact. Actual impact is likely to lie in the range between zero and the figure shown.

Figure 13 Health gains by option under different variants of the baseline scenario (total disability-adjusted life years gained, million)

Source: ICF

2.Additional details for section 7.1.2 direct and indirect economic impacts of changes in health status

Table 57 Direct and indirect cost savings associated with lower coronary artery disease disease burden by option under different variants of the baseline scenario (M EUR) 

 

Savings from lower disease burden

Policy option

B1 – 10 year elimination

B2 - 15 year elimination

B3 - No change

Option 1a

6,197

11,078

42,798

Option 1b

58,611

94,008

304,366

Option 2

10,329

15,353

141,484

Option 3a

6,197

11,078

42,798

Option 3b

58,611

94,008

304,366

Option 1b/3b + 2

Not estimated

94,008

Not estimated

Option 1a/3a + 2

Not estimated

19,248

Not estimated

Figure 14 Direct and indirect cost savings associated with lower coronary artery disease burden by option under different variants of the baseline scenario (billion EUR savings, present value)

3.Further details for appraisal of specific objective 1: Reduce intake of industrial trans fats in the entire EU for all population groups

The performance of options against this specific objective mirrors that for General Objective 2 on health inequalities. The performance of each option is summarised in Table 58 below.

Table 58 Appraisal of options’ performance under specific objective 1: reducing industrial trans fats intake for the entire EU for all population groups

Policy option

Expected impact

Comment

Option 1a

(+)

Option is expected to have a positive impact on health inequalities but impact is expected to be reduced by limits to the participation in the voluntary agreement of food business operators servicing the residual high-intake socio-demographic groups. Unlike Option 2 this will directly change product characteristics rather than requiring change in consumer behaviour, thus benefiting all groups including those facing greatest health impacts at present. Weaker effect than Option 1b because of weaker effect on overall industrial trans fats intake.

Option 1b

++

With compliance, this option is fully effective in bringing industrial trans fats intake down to a low level across the EU population.

Option 2

(+)

Labelling food products for industrial trans fats has the potential to reduce intake through two mechanisms – consumers uses the industrial trans fats data on the nutrient declaration to choose lower products that are lower in industrial trans fats and companies voluntarily reformulating their products so as to be able to quote a lower industrial trans fats figure on the nutrient declaration. Consumer awareness of the health consequences of high industrial trans fats intake is a necessary condition for the former effect and given evidence on the efficacy of labelling and consumer awareness it is concluded that this option is likely to have at a small positive effect on overall intake. There is the potential for those gains to be unevenly distributed across the potential and even for negative impacts in some cases as a result of confusion about interpretation of the nutrient data.

Option 3a

(+)

As for option 1a.

Option 3b

++

As for option 1b.

Option 1a/3a + 2

+

Combining labelling with voluntary agreements is expected to have a modest additional positive impact on industrial trans fats intake for all groups through synergistic effects between the two measures. The combination of labelling and voluntary agreement is expected to have a stronger effect than that of these options in isolation, and to reduce uncertainty by seeking to influence both actions by business and consumer demand. However, the effect will be weaker than Options 1b/3b and some uncertainty will remain

Option 1b/3b + 2

++

Combining labelling with legislation is not expected to provide significant added value in reducing intake; the possible impacts identified are positive

Note: scale of - - to + + indicates a range of strongly negative (- -) to strongly positive (+ +) impacts, with ‘0’ being neutral.



ANNEX 27: Further details for appraisal of specific objective 2: Ensure that the same rules/conditions apply in the EU to the manufacturing and placing on the market of foods that could contain industrial trans fats, so as to ensure legal certainty of EU food business operators within and outside the EU

Figure 15 The legislative options are expected to directly impact the actions of many more firms than are the voluntary agreements and the labelling option

Source: ICF estimates, applying above assumptions to Eurostat data

Table 59 Appraisal of options performance under specific objective 3: Ensure legal certainty for food business operators as regards the rules applicable to the manufacturing and placing on the market of foods that could contain industrial trans fats

Policy option

Expected impact

Comment

Option 1a

0

No additional legal certainty beyond the baseline, which may involve additional Member States adopting national laws.

Option 1b

++

Provides legal certainty and consistency across the EU

Option 2

0

Option does not preclude the possibility of Member States adopting national legislation as in the baseline. Option applies to only packaged foods so no impact on certainty in the food service sector.

Option 3a

0

No additional legal certainty beyond the baseline, which may involve additional Member States adopting national laws.

Option 3b

+(+)

Provides a single legal solution to industrial trans fats, and associated certainty, across the EU but would require adjustment by those Member States that have already adopted a 2% limit.

Option 1a/3a + 2

0

No additional impact is foreseen on legal certainty by combining a labelling obligation with voluntary agreements

Option 1b/3b + 2

++ / +(+)

No additional impact is foreseen beyond those achieved by legislation through adding a labelling obligation

Note: scale of - - to + + indicates a range of strongly negative (- -) to strongly positive (+ +) impacts, with ‘0’ being neutral.



ANNEX 28: Ex ante analyses in the US and Canada on Evidence on legislation to ban partly hydrogenated oils

Ex ante analyses in the US and Canada found large benefit:cost ratios for legislative limits on trans fats/ partly hydrogenated oils.

Costs and Benefits of TRANS FATS measures in Canada

A study undertaken by Gray, Malla and Perlich (2005) examined the potential economic impacts of a ban on industrial trans fats, at a time when industrial trans fats intake in the country was at high levels. It estimated that in all cases the total food costs of reducing TRANS FATS “would be less than $1 billion. Oilseed growers, whose price is set in the global market, would largely be unaffected by a ban. Generally, the increase in cost would occur at the crusher and food processor sectors through the cost of product reformulation and the substitution of higher cost HO (High Oleic) Canola and soybean oils. These costs would ultimately be passed on to consumers, resulting in very modest increases in consumer expenditure. The overall result would be a large economic gain over a range of plausible scenarios.”

The estimated costs and benefits of different options were as follows:

Option

Business compliance costs

Health benefits

Voluntary Labelling

$361 m

$7,357m

Mandatory Labelling

$471m

$12,570m

2% trans fats Limit

$941m

$19,540m

Source: Gray R and Malla S (2007) Reducing Trans fats Consumption in Canada: Voluntary/Mandatory Labeling System or Trans fats Ban? Policy Brief, Canadian Agricultural Innovation Research Network, Saskatoon

Economic Analysis of partly hydrogenated oils ban in the US

The FDA conducted an economic analysis, reported in the 2015 Final Determination regarding partially hydrogenated oils, which estimated the net present value over 20 years of quantified costs to the action will be $6.2 billion, with a 90 percent confidence interval of $2.8 billion to $11 billion. They estimated the net present value of 20 years of benefits to be $140 billion, with a 90 percent confidence interval of $11 billion to $440 billion. Expected NPV of 20 years of net benefits (benefits reduced by quantified costs) were $130 billion, with a 90 percent confidence interval of $5 billion to $430 billion. 306

20-Year net present value of

Low Estimate

Mean

High Estimate

Costs (BN USD)

2.8

6.2

11

Benefits (BN USD)

11

140

440

Net Benefits (BN USD) 

5

130

430

Source: https://www.federalregister.gov/documents/2015/06/17/2015-14883/final-determination-regarding-partially-hydrogenated-oils

(1)      Annex 5 provides the legal definition in the EU and chemical and scientific background information
(2)      Ruminant trans fats sources typically contribute between 0.3 and 0.8 % of the daily energy intake Hulshof KF et al. Eur J Clin Nutr. 1999;53(2):143-57
(3)      Different health indicators such as coronary heart disease, cardio vascular disease and coronary artery disease are used throughout this report, Annex 6 explains those different terminologies and the background of their use
(4)      Mozaffarian D et al., 2009, Health effects of trans-fatty acids: experimental and observational evidence, European Journal of Clinical Nutrition 63(S2): p. S5-S21
(5)      European Food Safety Authority, 2010, Scientific Opinion on Dietary Reference Values for fats, including saturated fatty acids, polyunsaturated fatty acids, monounsaturated fatty acids, trans fatty acids, and cholesterol, EFSA Journal 2010; 8(3):1461
(6)      WHO/FAO, 2003, Expert Report: Diet, nutrition and prevention of chronic diseases. Report of a Joint WHO/FAO Expert Consultation, WHO Technical Report Series 916
(7)      On 15 May 2018, WHO has in addition called for the elimination of trans fats from the food supply chain by 2023
(8)    European Food Safety Authority, 2010, Scientific Opinion on Dietary Reference Values for fats, including saturated fatty acids, polyunsaturated fatty acids, monounsaturated fatty acids, trans fatty acids, and cholesterol, EFSA Journal 2010; 8(3):1461
(9)    Martin-Saborido CM et al. (2016) Public health economic evaluation of different European Union-level policy options aimed at reducing population dietary trans fat intake. American Journal of Clinical Nutrition, 104: 1218-26
(10)    Hulshof KF et al. Eur J Clin Nutr. 1999;53(2):143-57
(11)      Regulation (EU) No 1169/2011 of the European Parliament and of the Council of 25 October 2011 on the provision of food information to consumers, OJ L 304,22.11.2011, p.18
(12)    Report from the Commission to the European Parliament and the Council regarding trans fats in foods and in the overall diet of the Union population. COM(2015) 619 final of 3 December 2015
(13)      The High Level Group is composed of European government representatives and constitutes a platform for information sharing on policy ideas and practices in the area of nutrition and physical activity ( http://ec.europa.eu/health/nutrition_physical_activity/high_level_group/index_en.htm )
(14)       http://ec.europa.eu/health/nutrition_physical_activity/docs/overview_nationalinitiatives_selectednutrients_en.pdf  
(15)       https://eu2015.lv/news/media-releases/1353-health-ministers-in-riga-agree-on-the-need-for-common-eu-nutrition-and-alcohol-policies
(16)       http://www.eu2015lu.eu/en/actualites/articles-actualite/2015/09/25-info-sante/
(17)      2014/C 213/01
(18)      9484/16 DENLEG 56 AGRI 295 SAN 219
(19)      Further Council Conclusions call for action on trans fats, such as the 2017 Council Conclusions to contribute towards halting the rise in Childhood Overweight and Obesity, where Member States and the Commission are invited to take measures to reduce the exposure of children and adolescents to marketing of foods high in trans-fatty acids
(20)      2016/2637(RSP) Resolution on trans fats (TFAs)     http://www.europarl.europa.eu/sides/getDoc.do?pubRef=-//EP//TEXT+TA+P8-TA-2016-0417+0+DOC+XML+V0//EN
(21)     http://www.beuc.eu/documents/files/Open%20Letter_industrially_produced%20TFAs_freeEU.pdf
(22)       http://www.fooddrinkeurope.eu/uploads/statements_documents/FoodDrinkEurope_statement_on_TFA_ %28November_2015%29.pdf
(23)      For the views of the European Consumers' Organisation (BEUC) see    http://www.beuc.eu/publications/beuc-x-2014-010_the_consumer_case_for_eu_legal_restrictions_on_the_use_of_artificial_trans.pdf; for the views of the European Heart Network see http://www.ehnheart.org/component/downloads/downloads/2212; for the views of the European Public health Alliance see http://www.epha.org/a/6458
(24)      For the views of the European Margarine Association (IMACE) see http://imace.org/wp-content/uploads/2015/12/Trans-fatty-acids-Commission-report-IMACE-Press-release1.pdf; for the views of the European Vegetable Oil and Proteinmeal Industry Federation (FEDIOL) see: http://www.fediol.be/data/FEDIOL%20press%20communique%20on%20TFA%20report%20-%20December%202015%20-%20final.pdf
(25)      The Platform brings together European-level organisations ranging from the food industry to consumer protection NGOs that are ready to take concrete commitments to tackling current trends in diet and physical activity. (http://ec.europa.eu/health/nutrition_physical_activity/platform/index_en.htm). Commitments can be consulted online: http://ec.europa.eu/health/ph_determinants/life_style/nutrition/platform/database/dsp_search.cfm?CFID=221283&CFTOKEN=24033781&jsessionid=090cc3d272167d16db18227f4573197e292bTR
(26)      http://www.fooddrinkeurope.eu/S=0/news/statement/fooddrinkeurope-statement-on-trans-fats/
(27)      This was confirmed in Denmark, the first Member State introducing a legal limit for industrial trans fats in foods (Ministry of Food, Agriculture and Fisheries of Denmark and the Danish Technical University, National Food Institute, 2014, Danish data on trans fatty acids in foods, https://www.foedevarestyrelsen.dk/Publikationer/Alle%20publikationer/2014004.pdf)
(28)       https://epha.org/wp-content/uploads/2017/09/Declaration-of-support_trans-fats-bill_Romania_EHN_EPHA_12.9.2017.pdf  
http://doc.cpme.eu:591/adopted/2018/CPME_AD_Board_14042018_017_FINAL_EN_CPME.Policy.on.Trans.Fats.pdf
(29)      https://eu-brusszel.mfa.gov.hu/assets/41/85/91/b3477161e14b1ae5d25a7f3d6f2a9d93b7833546.pdf
(30)       http://www.who.int/nutrition/topics/replace-transfat/
(31)      Report from the Commission to the European Parliament and the Council regarding trans fats in foods and in the overall diet of the Union population. COM(2015) 619 final of 3 December 2015
(32)      Saborido C M et al, 2016, Public health economic evaluation of different European Union–    level policy options aimed at reducing population dietary trans fat intake, American Journal of Clinical Nutrition, 2016;104:1218–26 http://ajcn.nutrition.org/content/early/2016/09/28/ajcn.116.136911.full.pdf
(33)      Mouratidou T et al. (2013) Trans Fatty Acides in Diets: Health and Legislative Implications. A workshop report. JRC Scientific and Policy Report.
(34)      WHO (2015) Eliminating trans fats in Europe. A policy brief. World Health Organisation, Europe Office
(35)      Legal measures limiting the content of industrial trans fats in foods exist also outside the EU, details are provided in Annex 8
(36)      Mouratidou T et al., 2014, Trans Fatty acids in Europe: where do we stand? JRC Science and Policy Reports http://publications.jrc.ec.europa.eu/repository/bitstream/JRC91353/lbna26795enn.pdf
(37)      European Food Safety Authority, 2004, Opinion related to the presence of trans fatty acids in foods and the effect on human health of the consumption of trans fatty acids. The EFSA Journal, 81, 1-49
(38)       http://www.euro.who.int/__data/assets/pdf_file/0010/288442/Eliminating-trans-fats-in-Europe-A-policy-brief.pdf?ua=1
(39)      ICF: Study to support the impact assessment of the initiative to limit industrial trans fats in the EU    Final report, document prepared for the European Commission. February 2018
(40)      Eurostat, Causes of death data, 2012
(41)      European Heart Network CVD statistics 2017
(42)      Details are provided in Annex 6
(43)      Psaltopoulou T et al., 2017, Socioeconomic status and risk factors for cardiovascular disease: Impact of dietary mediators, Hellenic Society of Cardiology (2017) 58, 32e42
(44)      Restrepo B.J. et al. Denmark’s policy on artificial trans fat and cardiovascular disease Am J Prev Med 2016;50(1):69–76
(45)      More empirical evidence about the effectiveness of legally restricting trans fats from the US: Brandt EJ, et al. Hospital Admissions for Myocardial Infarction and Stroke Before and After the Trans-Fatty Acid Restrictions in New York. JAMA Cardiol. Published online April 12, 2017. https://jamanetwork.com/journals/jamacardiology/article-abstract/2618359 /
(46)       http://videnskab.dk/krop-sundhed/dansk-forbud-mod-transfedt-redder-liv-om-dagen
(47)      Rubinstein, Adolfo, et al. "Eliminating artificial trans fatty acids in Argentina: estimated effects on the burden of coronary heart disease and costs." Bulletin of the World Health Organization 93 (2015): 614-622.
(48)      Brandt, EJ, Myerson, R, Perraillon, MC, and Polonsky, TS. Hospital admissions for myocardial infarction and stroke before and after the trans-fatty acid restrictions in New York. JAMA Cardiol. 2017; 2: 627–634
(49)      EFSA (2010), Mouratidou T et al (2014)
(50)      Mouratidou T et al. (2014) and COM (2015) 619
(51)      1 % of daily energy intake is the maximum intake level recommended by WHO
(52)      Nelson M et al., 2007, Low income diet and nutrition survey, National Centre for Social Research (NatCen), Nutritional Sciences Research Division at King’s College London, Department of Epidemiology and Public Health at the Royal Free and University College London Medical School
(53)      Satalic Z et al., 2007, Diet quality in Croatian university students: Energy, macronutrient and micronutrient intakes according to gender, Int J of Food Sciences and Nutrition, 58(5): p. 398-410
(54)      Intake recommendations for substances that provide energy are frequently expressed in relation to the total energy consumed as this enables to adjust amounts for different energy intakes in a population.
(55)      The German consumer association Verbraucherzentrale Bundesverband informed during the OPC that while in Germany a self-regulatory approach is followed, According to a statement by the Federal Institute for Risk Assessment (from 2013), the mean intake is currently 0.66 energy percent. But: 10 percent of consumers eat in a way so that they are above the recommendation
(56)      Commission Staff Working Document "Results of the Commission's consultations on 'TFA in foodstuffs in Europe"
(57)      Żbikowska A et al., 2015, Consumption Safety of Pastries, Confectioneries, and Potato Products as Related to Fat Content, Journal of the American College of Nutrition, 2015;34(6):507-14
(58)       http://www.foodwatch.org/de/informieren/zucker-fett-co/aktuelle-nachrichten/schaedliche-transfette-in-donuts-berliner-co/
(59)      Jedlé nejedlé tuky, D Test, November 2013 <www.dtest.cz>
(60)      Test hořických trubiček a plněných oplatek, D Test, January 2014 <www.dtest.cz>
(61)      Further details are provided in Annex 9
(62) Commission staff working document: Results of the Commission's consultations on 'trans fatty acids in foodstuffs in Europe'. 3.12.2015, SWD(2015) 268
(63) Mouratidou T et al. (2014) and COM (2015) 619
(64)      Stender S et al., 2014, Tracing artificial trans fat in popular foods in Europe: a market basket investigation, BMJ Open. 2014;4:e005218
(65)      Stender S et al., 2016 Artificial trans fat in popular foods in 2012 and in 2014: a market basket investigation in six European countries, BMJ Open 2016;6:e010673
(66)      Costa N et al., 2016, Trans fatty acids in the Portuguese food market, Food Control 64, 128-134
(67)      Details are provided in Annex 2
(68) Unpublished, Technical Report, Budapest, November 2017, National Institute of Pharmacy and Nutrition, Department of Nutrition Epidemiology: Assessment of the impact of the TFA Regulation on the availability and population intake of industrial TFA in Hungary. This work was done in the framework of the Biannual Collaborative Agreement between the World Health Organization Regional Office for Europe and the Ministry of Human Capacities
(69)      Annex 5 provides further technical details
(70)      Mouratidou T et al., (2014); Stender S., 2015, Editorial, American Journal of Clinical Nutrition 2015;102:1301–2; Kuhnt K. et al, 2011, Trans fatty acid isomers and the trans-9/trans-11 index in fat containing foods, European Journal of Lipid Science and Technology, 113, 1281–1292
(71)      Previous to the introduction of trans fat rich oils, more expensive alternative semi-solid fats such as animal fats,,butter or cocoa butter were used
(72)      European Food Safety Authority (2010)
(73)      Annex 7 provides further details
(74)      Ruminant fats contain approximately 3 % trans fats and between 40 to 60 % of saturated fats, generally the proportions of those fats are fixed. Both types of fats increase the risk of dying from heart disease. The risk associated with trans fats is higher as compared to saturated fats. However, in order to address excessive intakes of saturated fats national nutrition policies aim to reduce the population intake of ruminant fats in the diet (for example with recommendation to prefer low fat versions of dairy products) and address then automatically also the problem of ruminant trans fats
(75)      European Commission inception impact assessment 2016. Initiative to limit industrial trans fats intakes in the EU. 11/10/2016
(76)      Allen K et al., 2015, Potential of trans fats policies to reduce socioeconomic inequalities in mortality from coronary heart disease in England: cost effectiveness modelling study, BMJ 2015;351:h4583
(77)      Unpublished letter of the European Margarine Association from October 2017 to the Commission about imports of products with high industrial trans fats content (up to 20-30%) from Eastern neighbouring countries.
(78)       http://www.beuc.eu/documents/files/Open%20Letter_industrially_produced%20TFAs_freeEU.pdf
(79)       http://www.fooddrinkeurope.eu/uploads/statements_documents/FoodDrinkEurope_statement_on_ TFA_%28November_2015%29.pdf
(80)      Partial hydrogenation of oils is largely in use only since the middle of the 20th century
(81)      Please see Annex 8
(82)      Different limits established for lower fat products in Member States are described in Annex 9
(83)      Ministry of Food, Agriculture and Fisheries of Denmark: Danish data on trans fatty acids in foods.    ISBN 978-87-93147-02-7. 2014
(84)      Bundesministerium fuer Gesundheit, AGES: Lebensmittelsicherheitsbericht 2013, Zahlen, Daten, Fakten aus Österreich https://www.verbrauchergesundheit.gv.at/lebensmittel/lebensmittelkontrolle/LMSB2013_VersionWR_23_06_2014.pdf?6fdsbi
(85)      Unpublished, Technical Report, Budapest, November 2017, National Institute of Pharmacy and Nutrition, Department of Nutrition Epidemiology: Assessment of the impact of the TFA Regulation on the availability and population intake of industrial TFA in Hungary. This work was done in the framework of the Biannual Collaborative Agreement between the World Health Organization Regional Office for Europe and the Ministry of Human Capacities
(86)      Please see Annex 8 for more details
(87)      https://ec.europa.eu/food/sites/food/files/safety/docs/labelling_legislation_study_food-info-vs-cons-decision_2014.pdf
(88)      Stender et al. (2016) Artificial trans fat in popular foods in 2012 and in 2014: a market basket investigation in six European countries, BMJ Open 2016;6:e010673
(89)      Further details are provided in Annex 6
(90)      Restrepo B.J. et al. Denmark’s policy on artificial trans fat and cardiovascular disease Am J Prev Med 2016;50(1):69–76
(91)      Stender et al. BMJ Open. 2014;20;4(5):e005218
(92)      Stender S, Astrup A, Dyerberg J Artificial trans fat in popular foods in 2012 and in 2014: a market basket investigation in six European countries BMJ Open 2016;6:e010673. doi: 10.1136/bmjopen-2015-010673
(93)      Costa N et al., 2016, Trans fatty acids in the Portuguese food market, Food Control 64, 128-134
(94)      Saborido C M et al, 2016, Public health economic evaluation of different European Union–    level policy options aimed at reducing population dietary trans fat intake, American Journal of Clinical Nutrition, 2016;104:1218–26
(95)      Annex 8 provides further details
(96)      WHO is calling on a global elimination of trans fats, therefore pressure on Member States to act may increase in the coming years
(97)      For example, Denmark applies a legal limit of 2% trans fats of the fat content, in Lithuania the maximum permissible trans fats content is 10 % of the fat content if the total fat content is less than
3 %
(98)      EFSA: Re-evaluation of mono- and di-glycerides of fatty acids (E471) as food additives. EFSA Journal 2017; 15 (11):5045
(99)      EFSA: Re-evaluation of sodium, potassium and calcium salts of fatty acids (E470a) and magnesium salts of fatty acids (E470b) as food additives. EFSA Journal 2018; 16 (3):5180
(100)       https://eu2015.lv/news/media-releases/1353-health-ministers-in-riga-agree-on-the-need-for-common-eu-nutrition-and-alcohol-policies  
(101)      COM (2010) 2020 final, Communication from the Commission, "EUROPE 2020 A strategy for smart, sustainable and inclusive growth"
(102) This specific objective needs to be distinguished from the issue of ‘dual quality’ of products, which concerns situations, where a trader markets a product as being identical to the same product marketed in several other Member States, while those products, in fact, have significantly different composition and characteristics. In order to tackle the issue of ‘dual quality’, the Commission is currently implementing an articulated action plan (see: http://europa.eu/rapid/press-release_IP-17-3403_en.htm). Furthermore, this issue is also addressed in the Commission’s New Deal for Consumers package (see Article 1(2) and recitals 39-43 of the Proposal for a Directive on better enforcement and modernisation of EU consumer protection rules (COM(2018) 185 final): http://ec.europa.eu/newsroom/just/item-detail.cfm?item_id=620435).
(103) Stender S, Astrup A, Dyerberg J. (2014) Artificial trans fat in popular foods in 2012 and in 2014: a market basket investigation in six European countries BMJ Open 2016;6:e010673. doi: 10.1136/bmjopen-2015-010673
(104)      BEUC: Position Paper, The consumer case for EU legal restrictions on the use of artificial trans-fats in food. February 2014. http://www.beuc.eu/publications/beuc-x-2014-010_the_consumer_case_for_eu_legal_restrictions_on_the_use_of_artificial_trans.pdf
(105)      Jedlé nejedlé tuky, D Test, November 2013 <www.dtest.cz>
(106)      Test hořických trubiček a plněných oplatek, D Test, January 2014 <www.dtest.cz>
(107) Stender, S., A. Astrup, and J. Dyerberg:A trans European Union difference in the decline in trans fatty acids in popular foods:a market basket investigation. BMJ open,2012:
(108)      Expected change in the industrial trans fats amounts present in the food chain, industrial trans fats consumption, and associated socio-economic impacts
(109)      Saborido C M et al, 2016, Public health economic evaluation of different European Union–level policy options aimed at reducing population dietary trans fat intake, American Journal of Clinical Nutrition, 2016;104:1218–26: 'Concerning a possible establishment of a limit on industrial trans fats: experience shows impact is limited or non-existent for the hospitality industry: industrial trans fats contained in meals prepared by hospitality businesses are only the result of the content of such trans fats in supplies bought from the processing industry. If the supplies are already below the limits, food prepared by hospitality businesses will always be below the limits. Moreover, the majority of hospitality businesses cook dishes with raw products (and do not produce industrial trans fats), meaning that they will easily comply with limits.'
(110)      Evidence is discussed in more detail in Annex 10
(111)      Stender S.,, Astrup A.,, Dyerberg J. (2014) Tracing artificial trans fat in popular foods in Europe: a market basket investigation BMJ Open 2014;4:e005218. doi: 10.1136/bmjopen-2014-005218
(112)      Stender S, Astrup A, Dyerberg J. (2014) Artificial trans fat in popular foods in 2012 and in 2014: a market basket investigation in six European countries BMJ Open 2016;6:e010673. doi: 10.1136/bmjopen-2015-010673
(113) Unpublished, Technical Report, Budapest, November 2017, National Institute of Pharmacy and Nutrition, Department of Nutrition Epidemiology: Assessment of the impact of the TFA Regulation on the availability and population intake of industrial TFA in Hungary. This work was done in the framework of the Biannual Collaborative Agreement between the World Health Organization Regional Office for Europe and the Ministry of Human Capacities
(114)      Jedlé nejedlé tuky, D Test, November 2013 <www.dtest.cz>
(115)      Test hořických trubiček a plněných oplatek, D Test, January 2014 <www.dtest.cz>
(116)      Costa N et al., 2016, Trans fatty acids in the Portuguese food market, Food Control 64, 128-134
(117)      Unpublished letter of the European Margarine Association from October 2017 to the Commission about imports of products with high industrial trans fats content (up to 20-30%) from Eastern neighbouring countries.
(118)      http://www.foodwatch.org/de/informieren/zucker-fett-co/aktuelle-nachrichten/schaedliche-transfette-in-donuts-berliner-co/
(119)      This illustrative chart shows a linear progression in industrial trans fats consumption in either of the three scenarios, the actual shape of the curve in both baseline and with-policy options may be non-linear
(120)      Annex 8 provides details on the Member States
(121)    Etienne J (2015) Making sense of inter-organizational ‘safe spaces’ in business regulation, CARR Discussion Paper n°79, London School of Economics and Political Science.
(122)      Denmark (2003), Romania (2017) and Slovenia (2017)
(123)      A 2% limit enables residual use of raw ingredients or additives containing industrial trans fats and take into account the unintentional generation of trans fats during processing
(124)      Austrian/Hungarian legislation established a maximum content of trans fats at 10% of the total fat content where the total fat content is less than 3% of the product, and at 4% where the total fat content is between 3% and 20% of the product; further details on the levels are provided in Annex 8
(125)      EC (2015) Report from the Commission to the European Parliament and the Council regarding trans fats in foods and in the overall diet of the Union population COM(2015) 619 final
(126)

     Longer transition periods have been allowed for implementation of the Food Information Regulation, however, that legislation involved greater changes than those implied by this Option, therefore a shorter transition period has been assumed

(127)    Food & Drug Administration’s determination on partly hydrogenated oils being not Generally Recognized as Safe https://www.federalregister.gov/documents/2015/06/17/2015-14883/final-determination-regarding-partially-hydrogenated-oils  
(128)      Government of Canada (2017) Notice of Proposal - Prohibiting the Use of Partially Hydrogenated Oils in Foods.
(129) The iodine value is used by the refining sector as a technical measurement of the level of unsaturation in vegetable oils and fats.
(130)      Assuming constant factors here means that in the modelling no such variables were included
(131)      Martin-Saborido CM et al. (2016) Public health economic evaluation of different European Union-level policy options aimed at reducing population dietary trans fat intake. American Journal of Clinical Nutrition, 104: 1218-26
(132)      Discounting renders benefits and costs that occur in different time periods comparable by expressing their values in present terms. In practice, it is accomplished by multiplying the future values by a discount factor
(133)      Details are provided in Annex 14
(134)      Details are provided in Annex 14
(135)      http://www.who.int/nutrition/topics/replace-transfat/
(136) Österreichischer Ernährungsbericht 2008, Herausgegeben vom Institut für Ernährungswissenschaften der Universität Wien im Auftrag des Bundesministeriums für Gesundheit
(137) Bundesinstitut für Risikobewertung: Stellungnahme 028/2013 vom 6. Juni 2013
(138) The discount rate of 4 % was chosen in line with the Better Regulation toolbox advice https://ec.europa.eu/info/sites/info/files/file_import/better-regulation-toolbox-61_en_0.pdf
(139)      Based on Eurostat data on production value in annual detailed enterprise statistics for industry (NACE Rev. 2, B-E) [sbs_na_ind_r2]
(140)      Eliminating trans fats is now listed as a target in WHO’s strategic plan, which directs the global body’s work over the next five years. http://www.who.int/news-room/detail/14-05-2018-who-plan-to-eliminate-industrially-produced-trans-fatty-acids-from-global-food-supply
(141)      FoodDrinkEurope (2016) Data and Trends – European Food and Drink Industry 2016.
(142)      Details of the results of the OPC are provided in Annex 2
(143)      This is supported by the views from respondents to the validation consultation, who mentioned the experience from food service SMEs in Austria and Denmark.
(144)       https://eu-brusszel.mfa.gov.hu/eng/news/tfa-reduction-a-low-hanging-fruit-to-reap-for-securing-better-health
(145)       https://eu-brusszel.mfa.gov.hu/assets/41/85/91/b3477161e14b1ae5d25a7f3d6f2a9d93b7833546.pdf
(146)      It was not possible to gather quantitative evidence for environmental impacts due to the complexity of the issue
(147) Annex 26 provides a slightly updated version of table 3 illustrating this concept and provides furthermore a figure for illustration
(148)      The presentation here replicated the Joint Research Centre of the European Commission model outputs in combining the direct and indirect costs. ICF looked at separating the two categories of impact in future presentations of the results. Annex 4 provides details about the background of choosing a 85 year horizon
(149)      Annex 26 provides a slightly updated version of table 2 as the direct and indirect cost savings for the combined options are added, and provides furthermore a figure for illustration
(150)      Details are provided in Annex 27
(151) European Food Safety Authority, 2010, Scientific Opinion on Dietary Reference Values for fats, including saturated fatty acids, polyunsaturated fatty acids, monounsaturated fatty acids, trans fatty acids, and cholesterol, EFSA Journal 2010; 8(3):1461
(152)       https://ec.europa.eu/food/sites/food/files/safety/docs/labelling_legislation_study_food-info-vs-cons-decision_2014.pdf
(153)      https://eu-brusszel.mfa.gov.hu/assets/41/85/91/b3477161e14b1ae5d25a7f3d6f2a9d93b7833546.pdf
(154)      https://eu-brusszel.mfa.gov.hu/assets/41/85/91/b3477161e14b1ae5d25a7f3d6f2a9d93b7833546.pdf
(155)       http://ec.europa.eu/smart-regulation/roadmaps/docs/2016_sante_143_trans_fats_en.pdf
(156)       https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_consultation-strategy.pdf
(157)      Trans fats can be naturally present in food products derived from ruminant animals such as dairy products or meat from cattle, sheep or goat ('ruminant trans fats'). Trans fats can also be produced industrially ('industrial trans fats'), due to the food manufacturing process. The primary dietary source of industrial trans fats is partly hydrogenated oils which contain various amounts of trans fats (up to more than 50 % of the total fat content)
(158)       http://ec.europa.eu/smart-regulation/roadmaps/docs/2016_sante_143_trans_fats_en.pdf
(159)      Option 0 (baseline): No EU policy change; Option 1: Establishment of a limit for the industrial trans fats content in foods through a voluntary agreement (Option 1a) or through a legally-binding measure (Option 1b); Option 2: Introduction of the obligation to indicate the trans fats content of foods in the nutrition declaration; Option 3: Prohibition of the use of partly hydrogenated oils (PHO) in foods through a voluntary agreement (Option 3a) or through a legally-binding measure (Option 3b)
(160)       https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_consultation-strategy.pdf
(161)      COM (2015) 619 final, http://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-report_en.pdf
(162)      Commission Staff Working Document SWD (2015) 268, Results of the Commission's consultations on 'trans fatty acids in foodstuffs in Europe', http://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf
(163)      The validation survey questionnaire is provided in Annex 31 of the IA report
(164)      The OPC questionnaire in provided in Annex 33 of the IA report
(165)      Individuals were asked additional questions, replies indicated that this group was well informed about the trans fats issue and very health oriented individuals
(166)      'There is limited availability of comparable/EU-level data, however, some evidence collected by ICF indicates that the intake of trans fats in the EU has decreased considerably over recent years, but that the situation is not homogeneous for all products consumed by all population groups in all EU Member States. While average daily trans fats intakes for the overall EU population are below 1% of daily energy intake, some population groups have, or are at risk of having higher intakes. Most of the analysed food products contain trans fats at amounts below 2% of the total fat content, however, there are still products in the European food market with high levels of industrial trans fats.'
(167)      'Trans fats are an important risk factor for the development of CHD [Coronary Heart Disease] and their intake should be reduced in the diet of EU consumers. Although different actions were taken in different Member States and intakes have decreased over the past years, industrial trans fats are still present at levels of concern in certain foods and intakes are still excessive in certain cases (…). The issue is of particular relevance in certain Member States and for particular population groups' The Commission concluded that this lack of homogeneity in the EU hampers the effective functioning of the Internal Market, negatively affects the protection of consumers' health and contributes to the perpetuation of health inequalities
(168)      Those disagreeing stated that there was no negative effect on the Internal Market or that difference between Member States with regard to the trans fats issue was hardly noticeable
(169)      The following reasons were given for the disagreement: all trans fats sources should be taken into consideration, if not controllable advise of limiting intake should follow and labelling could be requested; ruminant trans fats can be avoided, they are equally of health concern and could become relatively more important sources if industrial trans fats intakes are reduced; for labelling al trans fats should be declared; mammals should not be eaten at all
(170)      In order to limit the intake of trans fats, different actions were taken in different Member States, other Member States have not taken action. There is added value of an EU-based, EU-wide action as this would ensure a level playing field in the Internal Market and the same high level of protection of consumers' health by the means of an initiative that would apply simultaneously in the entire EU and would minimise the risk of national regulatory interventions fragmenting the Internal Market
(171)      Only one respondent gave a reason, stating that the analysis is valid for pre-packed food traded within the Single Market but does not apply to non pre-packed food served by local food services where no risk of fragmentation of the Single Market was confirmed while this risk exists for ingredient suppliers of food service providers
(172)      FoodDrinkEurope announcement November 2015 http://www.fooddrinkeurope.eu/uploads/statements_documents/FoodDrinkEurope_statement_on_TFA_%28November_2015%29.pdf
(173)      Commission staff working document SWD(2015) 268 final, Results of the Commission's consultations on 'trans fatty acids in foodstuffs in Europe'. Accompanying the document. Report from the Commission to the European Parliament and the Council regarding trans fats in foods, in the overall diet and means for their reduction. COM(2015) 619 final; https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf ; Mouratidou et al. Trans Fatty acids in Europe: where do we stand? JRC Science and Policy Reports 2014 doi:10.2788/1070
(174)      Martin-Saborido et al. Public health economic evaluation of different European Union–level policy options aimed at reducing population dietary trans fat intake. Am J Clin Nutr November 2016 vol. 104 no. 5 1218-1226
(175)      Downs S. M. et al.: The Impact of Policies to Reduce trans Fat Consumption: A Systematic Review of the Evidence. Curr Dev Nutr 2017;1
(176)      Mozaffarian D et al., 2009, Health effects of trans-fatty acids: experimental and observational evidence, European Journal of Clinical Nutrition 63(S2): p. S5-S21
(177)      Point 4 of Annex I to Regulation (EU) No 1169/2011
(178)      European Food Safety Authority, 2004, Opinion related to the presence of trans fatty acids in foods and the effect on human health of the consumption of trans fatty acids. The EFSA Journal, 81, 1-49
(179)      European Food Safety Authority, 2004, Opinion related to the presence of trans fatty acids in foods and the effect on human health of the consumption of trans fatty acids. The EFSA Journal, 81, 1-49
(180)

     Mouratidou T et al., 2014, Trans Fatty acids in Europe: where do we stand? JRC Science and Policy Reports. It is important to note that Partial hydrogenation is different from full hydrogenation, as when all double bonds are hydrogenated, a saturated fatty acid is formed

(181)      Annex VII to Regulation (EU) No 1169/2011 of the European Parliament and of the Council of 25 October 2011 on the provision of food information to consumers, OJ L 304,22.11.2011, p.18
(182)      European Food Safety Authority, 2010, Scientific Opinion on Dietary Reference Values for fats, including saturated fatty acids, polyunsaturated fatty acids, monounsaturated fatty acids, trans fatty acids, and cholesterol, EFSA Journal 2010; 8(3):1461
(183)      Commission Staff Working Document " Results of the Commission's consultations on 'TFA in foodstuffs in Europe"
(184)      Hulshof KF et al. Eur J Clin Nutr. 1999;53(2):143-57
(185)      Mouratidou T et al., (2014)
(186)      ICF and Danish food institute. ‘Analysis of trans fatty acids in Denmark, industrially produced versus ruminant trans fatty acids’
(187)      European Commission, Joint Research Centre, 2016, Possibilities to quantify trans fatty acids of ruminant origin in blends containing ruminant and industrially processed fats and oils (Ref. Ares(2016)6994854 - 15/12/2016)
(188)      Different health indicators such as coronary heart disease, cardio vascular disease and coronary artery disease are used throughout this report, this Annex explains those different terminologies and the background of their use
(189)      Mozaffarian D et al., 2009, Health effects of trans-fatty acids: experimental and observational evidence, European Journal of Clinical Nutrition 63(S2): p. S5-S21
(190)      European Food Safety Authority, 2010, Scientific Opinion on Dietary Reference Values for fats, including saturated fatty acids, polyunsaturated fatty acids, monounsaturated fatty acids, trans fatty acids, and cholesterol, EFSA Journal 2010; 8(3):1461
(191) WHO: Draft guidelines on saturated fatty acid and trans-fatty acid intake for adults and children. https://extranet.who.int/dataform/upload/surveys/666752/files/Draft%20WHO%20SFA-TFA%20guidelines_04052018%20Public%20Consultation(1).pdf
(192)         http://www.who.int/nutrition/topics/sfa-tfa-public-consultation-4may2018/en/
(193)      Eurostat, Causes of death data, 2012
(194)      Eurostat, Causes of death data, 2014
(195) The end of this Annex includes a note on concepts of trans fats-related diseases used in this impact assessment
(196)      Extrapolation assuming constant %GDP to EU-28 in 2014 from EU-25 in 2003 based on 1) Leal et al 2006 Eur Heart J. 2006 Jul;27(13):1610-9 Economic burden of cardiovascular diseases in the enlarged European Union, 2) ESTAT GDP data. Healthcare cost share based on WHO estimated for 2014
(197)      European Heart Network CVD statistics 2017
(198)      Eurostat, Causes of death data, 2014
(199)      Restrepo BJ et al., 2016 Denmark's Policy on Artificial Trans Fat and Cardiovascular Disease, American Journal of Preventive Medicine, Volume 50, Issue 1, January 2016, Pages 69-76
(200)      European Food Safety Authority, 2010, Scientific Opinion on Dietary Reference Values for fats, including saturated fatty acids, polyunsaturated fatty acids, monounsaturated fatty acids, trans fatty acids, and cholesterol, EFSA Journal 2010; 8(3):1461
(201)      Hulshof KF et al. Eur J Clin Nutr. 1999;53(2):143-57
(202)      Martin-Saborido CM et al. (2016) Public health economic evaluation of different European Union-level policy options aimed at reducing population dietary trans fat intake. American Journal of Clinical Nutrition, 104: 1218-26
(203) WHO/FAO, 2003, Expert Report: Diet, nutrition and prevention of chronic diseases. Report of a Joint WHO/FAO Expert Consultation, WHO Technical Report Series 916
(204)      Annex XIII to Regulation (EU) No 1169/2011
(205)      WHO: Draft guidelines on saturated fatty acid and trans-fatty acid intake for adults and children. https://extranet.who.int/dataform/upload/surveys/666752/files/Draft%20WHO%20SFA-TFA%20guidelines_04052018%20Public%20Consultation(1).pdf
(206)       http://www.who.int/nutrition/topics/sfa-tfa-public-consultation-4may2018/en/
(207)      POLITICO Pro Alert: WHO issues draft guidelines on saturated and trans fats -- By Sarah Wheaton    5/4/18, 4:55 PM CET
(208)      Mozaffarian D et al. (2006) Trans fatty acids and cardiovascular disease. New England Journal of Medicine Apr 13;354(15):1601-13.
(209) EFSA (2010) Scientific Opinion on Dietary Reference Values for fats, including saturated fatty acids, polyunsaturated fatty acids, monounsaturated fatty acids, trans fatty acids, and cholesterol. EFSA Journal 2010; 8(3):1461. [107 pp.]. doi:10.2903/j.efsa.2010.1461. EFSA Journal, 2010; 8(3):1467
(210) De Souza, R. J., et al. (2015) Intake of saturated and trans unsaturated fatty acids and risk of all cause mortality, cardiovascular disease, and type 2 diabetes: systematic review and meta-analysis of observational studies. BMJ 2015;351:h3978  
(211) WHO: Draft guidelines on saturated fatty acid and trans-fatty acid intake for adults and children. https://extranet.who.int/dataform/upload/surveys/666752/files/Draft%20WHO%20SFA-TFA%20guidelines_04052018%20Public%20Consultation(1).pdf
(212)       http://www.who.int/nutrition/topics/sfa-tfa-public-consultation-4may2018/en/
(213) Bysted, A., Ærendahl Mikkelsen, A., Leth, T. (2009) Substitution of trans fatty acids in foods on the Danish market. European Journal of Lipid Science. Volume 111, Issue 6. No. 6 June 2009. Pages 574–583
(214) https://ec.europa.eu/health/sites/health/files/nutrition_physical_activity/docs/euframework_national_nutrients_en.pdf
(215)   https://ec.europa.eu/health/sites/health/files/nutrition_physical_activity/docs/satured_fat_eufnisn_en.pdf
(216)      Notification 2017/535/RO, standstill period until 24 May 2018
(217)      For Denmark: 100 g total fat or oil.
(218)      Notification: 2018/0167/E, the purpose of the draft decree is to regulate the use of the term ‘artisan' or ‘artisanal' for food products
(219)      EC, 2015. Report from the Commission to the European Parliament and the Council regarding trans fats in foods and in the overall diet of the Union population. SWD(2015) 268 final
(220)      USFDA (2017) Final Determination Regarding Partially Hydrogenated Oils (Removing Trans Fat). ( https://www.federalregister.gov/documents/2015/06/17/2015-14883/final-determination-regarding-partially-hydrogenated-oils )
(221)      Bruns R (2015) Estimate of Costs and Benefits of Removing Partially Hydrogenated Oils (PHOs) from the US Food Supply. US Department of Health and Human Services.
(222)      Quote from the Canada Gazette accessible at http://gazette.gc.ca/rp-pr/p1/2018/2018-02-10/html/reg2-eng.html .
(223)      TNS (2014) Study on the Impact of Food Information on Consumers’ Decision Making.
(224)      Mouratidou T et al., 2014, Trans Fatty acids in Europe: where do we stand? JRC Science and Policy Reports http://publications.jrc.ec.europa.eu/repository/bitstream/JRC91353/lbna26795enn.pdf
(225)      (1) Biscuits, buns, cakes and pastries (2) Fats and oils: Margarines, blended spreads, butter, vegetable oil shortenings (3) Convenience products: ready meals, canned food, instant soups, pizza (4) Fast food products: burgers, fries, takeaway desserts (5) Bakery products: bread, bread rolls, breadsticks (6) Dairy Products: cheese, cream (7) Varia: bullions, aloe vera juice, gluten-free products (8) Savoury biscuits, crackers, crisps, popcorn (9) Chocolate confectionery and chocolate spreads (10) Sugar products: candies, ice cream lollies (11) Meat and meat products: beef, lamp pork sausages (12) Cereal products: breakfast cereals, cereal bars (13) Milk-based desserts: ice-cream (14) Sauces, dressings etc.: gravy, curry sauce
(226)      Mouratidou et al. (2014) Trans Fatty acids in Europe: where do we stand? JRC Science and Policy Reports 2014 doi:10.2788/1070
(227)      Stender S.,, Astrup A.,, Dyerberg J. (2014) Tracing artificial trans fat in popular foods in Europe: a market basket investigation BMJ Open 2014;4:e005218. doi: 10.1136/bmjopen-2014-005218
(228)      Stender S, Astrup A, Dyerberg J. (2014) Artificial trans fat in popular foods in 2012 and in 2014: a market basket investigation in six European countries BMJ Open 2016;6:e010673. doi: 10.1136/bmjopen-2015-010673
(229)      See online supporting material for detailed information: Martin-Saborido CM et al. (2016) Public health economic evaluation of different European Union-level policy options aimed at reducing population dietary trans fat intake. Online Supporting Material. American Journal of Clinical Nutrition, 104: 1218-26
(230)      Pearson-Stuttard J et al. (2015) Quantifying the Socio-Economic Benefits of Reducing Industrial Dietary Trans Fats: Modelling Study. PLOS One 10(8): e0132524
(231)      IMACE (2015) IMACE position on trans fatty acids. Brussels, April 2015
(232)      Hendry et al. 2015. Impact of regulatory interventions to reduce intake of artificial trans-fatty acids: a systematic review. American Journal of Public Health 105(3); Downs et al. 2013. The effectiveness of policies for reducing dietary trans fat: a systematic review of the evidence. Bulletin of the World Health Organisation 91: 262-269
(233)      Stender S, Astrup A, Dyerberg J Artificial trans fat in popular foods in 2012 and in 2014: a market basket investigation in six European countries BMJ Open 2016;6:e010673. doi: 10.1136/bmjopen-2015-010673
(234)      Restrepo, B. J., and Rieger, M. (2016) Denmark’s Policy on Artificial Trans Fat and Cardiovascular Disease. AJPM January 2016Volume 50, Issue 1, Pages 69–76
(235)      Brandt et al. (2017) Hospital Admissions for Myocardial Infarction and Stroke Before and After the Trans-Fatty Acid Restrictions in New York. JAMA Cardiology Jun 1;2(6):627-634. doi:10.1001/jamacardio.2017.0491; Restrepo B.J. and Rieger M. (2016) Trans fat and cardiovascular disease mortality: Evidence from bans in restaurants in New York Journal of Health Economics 45: 176-196
(236)      Ministry of Food, Agriculture and Fisheries of Denmark and DTU (2014) Danish data on trans fatty acids in food
(237)      Hinrichsen, N. (2016) Commercially available alternatives to palm oil, Lipid Technol. 2016 Apr; 28(3-4): 65–67
(238)      European Commission, Directorate General Health & Food Safety (2016) Strategic Plan 2016-2020
(239)      EC (2015) Report from the Commission to the European Parliament and the Council regarding trans fats in foods and in the overall diet of the Union population. European Commission, Brussels. SWD (2015) 268 final
(240)      Volksgezondheid, Welzijn en Sport.
(241)      Knai C et al. (2017) An evaluation of a public-private partnership to reduce artificial trans fatty acids in England, 2011-16. European Journal of Public Health, 27: 605-608.
(242)      Traill, W. B. et al. (2012) Reformulation for healthier food: a qualitative assessment of alternative approaches. AgEcon Search, Conference Paper/ Presentation, 2012.
(243)       FEDIOL (2014) FEDIOL Position on TFA.
(244)      Sodexo (2016) Sodexo corporate responsibility report 2016; McDonald’s (2012) Do any of your products contain trans fats? ; Unilever (2017) Good fats & oils from plants.
(245)      Hendry, V.L., Almíron-Roig, E., Monsivais, P., Jebb, S.A., Neelon, S.E.B., Griffin, S.J. and Ogilvie, D.B., 2015. Impact of regulatory interventions to reduce intake of artificial trans–fatty acids: a systematic review. American Journal of Public Health (ajph)
(246)      Downs, S.M., Thow, A.M. and Leeder, S.R., 2013. The effectiveness of policies for reducing dietary trans fat: a systematic review of the evidence. Bulletin of the World Health Organization, 91(4), pp.262-269h
(247)      Downs, S.M., Thow, A.M. and Leeder, S.R., 2013. The effectiveness of policies for reducing dietary trans fat: a systematic review of the evidence. Bulletin of the World Health Organization, 91(4), pp.262-269h
(248)      TNS (2014) Study on the Impact of Food Information on Consumers’ Decision Making
(249)      Lack of awareness of TFAs was identified as a limiting factor for effectiveness of labelling regulations in Latin America and the Caribbean (Colón-Ramos, U., Monge-Rojas, R. and Campos, H., 2013. Impact of WHO recommendations to eliminate industrial trans-fatty acids from the food supply in Latin America and the Caribbean. Health policy and planning, 29(5), pp.529-541). In contrast, high consumer awareness, driven by extensive media coverage of the issue was seen as a key reason for the success of the Canadian labelling initiative (stakeholder interview); Men and consumers under age 40 were least likely to be aware of food label information (Ellis, S. and Glanville, N.T., 2010. Trans Fat Information on Food Labels: Consumer Use and Interpretation. Canadian Journal of Dietetic Practice and Research, 71(1), pp.6-10.); Males and ethnic minority college students were less likely to use food labelling about trans fats (Jasti, S. and Kovacs, S., 2010. Use of trans fat information on food labels and its determinants in a multiethnic college student population. Journal of Nutrition Education and Behavior, 42(5), pp.307-314.)
(250)      Ministry of Food, Agriculture and Fisheries of Denmark and the National Food Institute (2014). Danish data on trans fatty acids in foods
(251)      Martin-Saborido CM et al. (2016) Public health economic evaluation of different European Union-level policy options aimed at reducing population dietary trans fat intake. American Journal of Clinical Nutrition, 104: 1218-26
(252)      USFDA (2017) Final Determination Regarding Partially Hydrogenated Oils (Removing Trans Fat)
(253)      Pearson-Stuttard J, Bajekal M, Scholes S, et al. Recent UK trends in the unequal burden of coronary heart disease. Heart 2012;98:1573-82
(254)      Souza Russell J, Mente Andrew, Maroleanu Adriana, Cozma Adrian I, Ha Vanessa, Kishibe Teruko et al. Intake of saturated and trans unsaturated fatty acids and risk of all cause mortality, cardiovascular disease, and type 2 diabetes: systematic review and meta-analysis of observational studies BMJ 2015; 351 :h3978
(255)      Allen K, Pearson-Stuttard J, Hooton W, Diggle P, Capewell S, O'Flaherty M. Potential of trans fats policies to reduce socioeconomic inequalities in mortality from coronary heart disease in England: cost effectiveness modelling study. BMJ 2015;351:h4583
(256)      Pearson-Stuttard J, Critchley J, Capewell S, O'Flaherty M. Quantifying the Socio-Economic Benefits of Reducing Industrial Dietary Trans Fats: Modelling Study. PLoS One 2015;10:e0132524
(257)      Rothman RL, Housam R, Weiss H, et al. Patient understanding of food labels: the role of literacy and numeracy. Am J Prev Med 2006;31:391-8 ; Auchincloss AH, Young C, Davis AL Wasson S, Chilton M, Karamanian V. Barriers and facilitators of consumer use of nutrition labels at sit-down restaurant chains. Public Health Nutr 2013;16:2138-45
(258)      Allen K, Pearson-Stuttard J, Hooton W, Diggle P, Capewell S, O'Flaherty M. Potential of trans fats policies to reduce socioeconomic inequalities in mortality from coronary heart disease in England: cost effectiveness modelling study. BMJ 2015;351:h4583
(259)      Hyseni L, Elliot-Green A, Lloyd-Williams F, et al. Systematic review of dietary salt reduction policies: Evidence for an effectiveness hierarchy? PLoS One 2017;12:e0177535
(260)      Capewell S, Capewell A. An effectiveness hierarchy of preventive interventions: neglected paradigm or self-evident truth? Journal of public health (Oxford, England) 2017:1-9
(261)      Trail B S et al. Reformulation for healthier food: a qualitative assessment of alternative approaches. 2012
(262)      The basis for this estimate is discussed in Annex 13
(263)

     Annual detailed enterprise statistics for industry (NACE Rev. 2, B-E) [sbs_na_ind_r2]

(264)      There are wide variations in labour costs by Member State, with the lowest costs in Bulgaria and highest in Denmark. For example, manufacturing labour costs vary from EUR 3.7 to 43.4 per hour, food service from 2.5 to 28.6 per hour, professional and scientific services from 7.3 to 50.7 per hour, and public service activities from 4.4 to 39.7 per hour. Source: Labour cost levels by NACE Rev. 2 activity [lc_lci_lev], 2016
(265)      Cabinet of Ministers, Latvia (2015) Cabinet of Ministers draft Regulation "On the maximum permissible content of trans fatty acids in foodstuffs", Ex-ante impact assessment report (summary)
(266)      Responses to the validation consultation did not provide clear advice to revise this assumption either upwards or downwards.
(267)      Bruns R (2015) Estimate of Costs and Benefits of Removing Partially Hydrogenated Oils (PHOs) from the US Food Supply. US Department of Health and Human Services
(268)      JRC (2013) Trans-fatty acids in Europe. Health and legislative implications. Workshop report. Zagreb, Croatia. 9-10 April, 2013
(269)      Allen K, Pearson-Stuttard J, Hooton W, Diggle P, Capewell S, O'Flaherty M. Potential of trans fats policies to reduce socioeconomic inequalities in mortality from coronary heart disease in England: cost effectiveness modelling study. BMJ 2015;351:h4583
(270)      WHO (2015) Eliminating trans fats in Europe: A policy brief. WHO, Copenhagen.
(271)      This is based on a review of the evidence, drawing on sources such as the JRC (2014) study "Trans fats in Europe: where do we stand". However, it has been necessary to make broad assumptions about average levels of TFA in different foods and countries, since the available data give examples and ranges rather than industry averages
(272)      Bruns R. (2015) Estimate of Costs and Benefits of Removing Partially Hydrogenated Oils from the US Food Supply. US Department of Health and Human Services
(273)      Mouratidou Th., Saborido C.M., Wollgast J., Ulberth F. and Caldeira S. (2013) Trans Fatty Acides in Diets: Health and Legislative Implications. A workshop report. JRC Scientific and Policy Report
(274)      Based on analysis of purchases by EU food manufacturing sector using SBS data and input: output tables; Annual detailed enterprise statistics for industry (NACE Rev. 2, B-E) [sbs_na_ind_r2]
(275)      Responses to the consultation validation of ICF did not provide justification for revising this estimate
(276)      EC (2015) Commission Staff Working Document. Results of the Commission's consultations on 'trans fatty acids in foodstuffs in Europe'
(277)      EC (2008) Commission Staff Working Document accompanying the Proposal for a Regulation Of The European Parliament And Of The Council on the provision of food information to consumers - Impact Assessment Report On General Food Labelling Issues {SEC(2008) 92 final}
(278)      The validation consultation of ICF showed that most respondents were unsure of the costs of a label change. More respondents thought that an estimated cost of EUR1500 per unit was reasonable than those who thought it was too low. Given that the transition period envisaged would prevent costs/losses such as label stock destruction, the estimate has been revised down to EUR1000 per unit
(279)      Hendry et al. (2015) Impact of regulatory interventions to reduce intake of artificial trans-fatty acids: a systematic review, Am J Public Health. 2015 Mar;105(3):e32-42. doi: 10.2105/AJPH.2014.302372
(280)      Please see Annex 8
(281)      Sassi, F. et al. (2009), “Improving Lifestyles, Tackling Obesity: The Health and Economic Impact of Prevention Strategies”, OECD Health Working Papers, No. 48, OECD Publishing, Paris. http://dx.doi.org/10.1787/220087432153
(282)      Ratnayake WMN, L’Abbe MR, Farnworth S, Dumais L, Gagnon C, Lampi B et al. Trans fatty acids: current contents in Canadian foods and estimated intake levels for the Canadian population. Journal of AOAC International. 2009;92(5):1258–76
(283)      Hendry VL, Almíron-Roig E, Monsivais P, Jebb SA, Benjamin Neelon SE, Griffin SJ et al. (2015) Impact of regulatory interventions to reduce intake of artificial trans–fatty acids: a systematic review.American Journal of Public Health. 2015;105(3):e32-e42
(284)      Krenosky et al. (2012) Risk Assessment of Exposure to Trans Fat in Canada. International Food Risk Analysis Journal, vol.2, 1-15
(285) Hooker, N. and Downs, S. (2014) Trans-Border Reformulation: US and Canadian Experiences with trans Fat. International Food and Agribusiness Management Review. Volume 17 Special Issue A, 2014.
(286)      Ministry of Food, Agriculture and Fisheries of Denmark and the National Food Institute (2014). Danish data on trans fatty acids in foods. P.8
(287)      Public Health Law Center (2008) Trans fat bans: Policy options for eliminating the use of artificial trans fats in restaurants.
(288)      European Commission (2016) Inception Impact Assessment - Initiative to limit industrial trans fats intakes in the EU
(289)      Interview with The Danish Veterinary and Food Administration (5 July 2017) by ICF
(290)      Stender S, Astrup A, Dyerberg J Artificial trans fat in popular foods in 2012 and in 2014: a market basket investigation in six European countries BMJ Open 2016;6:e010673. doi: 10.1136/bmjopen-2015-010673
(291)      Stender S, Astrup A, Dyerberg J Artificial trans fat in popular foods in 2012 and in 2014: a market basket investigation in six European countries BMJ Open 2016;6:e010673. doi: 10.1136/bmjopen-2015-010673
(292) Details are provided in Annex 8
(293)      Salux (n.d.) Salux Project
(294)      Salux (2016) Food reformulation – supporting SMEs in improving the nutritional profile of their products (SALUX)
(295)      European Parliament (2016) Trans Fats – Overview of recent developments. European Parliament, Briefing March 2016.
(296)      WHO (2015) Eliminating trans fats in Europe - A policy brief.
(297)      BMI Research (2017) Industry Trend Analysis - Growing Obstacles for Palm Oil In Europe Despite Sustainability Efforts - JUNE 2017
(298)      European Parliament (2016) Draft Report - Palm oil and deforestation of rainforests.
(299)      European Parliament resolution of 4 April 2017 on palm oil and deforestation of rainforests (2016/2222(INI)). http://www.europarl.europa.eu/sides/getDoc.do?pubRef=-//EP//NONSGML+TA+P8-TA-2017-0098+0+DOC+PDF+V0//EN  
(300)      This figure has been disputed. A study on Indonesia, one of the main producers of palm oil in the world, has linked palm oil production to a maximum of 16% of the total deforestation in the country. Abood, S. A., Lee, J. S. H., Burivalova, Z., Garcia‐Ulloa, J., and Koh, L.P. 'Relative contributions of the logging, fiber, oil palm, and mining industries to forest loss in Indonesia'. Conservation Letters 8 (2015), 58-67
(301)      European Sustainable Palm Oil Advocacy Group (2016) Position paper on palm oil production and deforestation
(302)      FEDIOL (2017). Palm Oil Monitoring
(303)      FEDIOL (2017) EU vegetable oils’ sector works towards meeting the 2020 commitments on sustainable palm oil. Press Release
(304)      FDA (2015) Final Determination Regarding Partially Hydrogenated Oils. A Notice by the FDA on 06/17/2015
(305)      COWI (2017). Feasibility Study on options to step up EU Action against Deforestation – Part II
(306)      FDA (2015) Final Determination Regarding Partially Hydrogenated Oils. A notice by the FDA on 06/17/2015.
Top

ANNEX 29: Consolidated information collected through interviews with EU level business associations by

1 Trans fatty acids in products

Do you have data and trends on the trans fats content in products of your members? Do you have details on industrial trans fats and ruminant trans fats content?

HOTREC:

HOTREC does not have data on trans fats content of food cooked and served by hospitality businesses.

However, it is important to understand that hospitality businesses cook food for immediate serving and consumption (by opposition to saturated fat the food processing/manufacturing industry).

As a consequence, most hospitality businesses cook meals using raw products, meaning that food served by hospitality businesses may contain natural trans fats (contained in meat, dairy products, etc.) but will normally not contain industrial trans fats, unless a dish is prepared using industrial products (bought from a supplier) already containing industrial trans fats. Moreover, to prepare French fries, restaurants normally use vegetable oils (or in some countries – e.g. Belgium – animal fat for French fries), therefore making deep frying safe in terms of industrial trans fats.

FEDIOL:

Over the past 15 years, FEDIOL members have been supporting industry initiatives to reduce trans fats in vegetable oils and fats. Thanks to these numerous industry actions, new low trans fats vegetable oil and fat formulations are provided to consumers, enabling overall reductions in the trans fats content of food products.

To estimate the extent of this reduction for the vegetable oil and fat sector, FEDIOL undertook a data collection and analysis on the basis of which it was concluded that the average trans fats content in vegetable oils and fat formulations has decreased over the last 15 years from 5.3 to 1% on fat basis, which corresponds to a relative decrease of 81%.

In bottled vegetable oils, refining practices also ensure that trans fats levels are well below 2% on fat basis.

The trans fats reductions achieved in vegetable oils and fats by FEDIOL members are reflected in various EU Member State surveys, where considerably reductions in dietary trans fats intake have been demonstrated in recent years.

This decrease was also highlighted by EFSA in its opinions of 2004 and 2009, based on data analysis at national level. 1  It was also highlighted in the Commission report on trans fats released in 2015.

See also FEDIOL document 09NUT242 for more details on FEDIOL data collection.

IMACE:

IMACE has worked with its members to reduce trans fats content of products since 2004, through a Code of Conduct. The voluntary approach has worked well and all members have been actively involved. There have been some variations in the rate of progress, with some smaller companies requiring more time to reduce trans fats in their products.

Activities have achieved good results with average trans fats content of 1.2% achieved for consumer products and less than 2% for B2B products in 2016. As a result the industry can be considered as almost trans fats free. These efforts and successes have been acknowledged by EFSA.

Product functionality requires partly hydrogenated oil to be replaced with another solid fraction. Options include palm oil, coconut oil, fully hydrogenated vegetable oils, or butter/ animal fats. There is a preference not to use saturated fats for health reasons. Some effort is required for product reformulation – it is not simply a case of substituting one ingredient for another – but finding an overall formula that achieves product functionality and quality.

CAOBISCO:

CAOBISCO does not have data on this.

Food Drink Europe: 

FDE have not collected information on this. The absolute vast majority of members say that this is not an issue any more. They are below the threshold of 2% (Danish reference threshold). We receive feedback that most of our members have already complied, or that they have virtually eliminated trans fats from their products (the total elimination is not possible due to the presence of industrial trans fats in additives. At federation level there are also many indications that this is not an issue any more. There are a number of MS measures and voluntary agreements in place. The feedback that we get is that this has been evaluated by public authorities in a number of member states (Germany, Belgium, Spain) and this indicates that the intake is below the 2% limit. As a result it is not an issue of public health any more in these countries and sectors. That is what EFSA’s Opinion said already.

But there might still be problems in some countries and products. For instance in Czech Republic: companies there are often small, and they did not understand how to remove industrial trans fats from their products. Confusion exists on terminology.

Swedish Food Federation (on behalf of CEBP):
The level of trans-fats in foods is monitored in Sweden. It is approximately 1.7g / day on average, of which 25% is industrial trans fats. This is below the target level from the WHO. This is a similar level to that seen in Denmark, which has legislation.

The level of industrial trans fats used in Sweden decreased sharply in the 1990s. This was not driven by legislation, but largely by consumer demand. Consumers in SE did not want industrial trans fats in their food, therefore consumption went down, and producers responded to the change in demand.

In the early 2000s, a voluntary measure was introduced in Sweden. This type of arrangement is known as “the Swedish model” (collaboration and integration), to set an agreed voluntary measure for industrial trans fats. The model does not specify a particular level of industrial trans fats, just a commitment to make it as low as is possible.

Despite no committed level, this approach seems to work in Sweden. It is not regulated in any way. However, due to consumer pressure (and a media campaign in the mid-2000s), producers do stick to the agreement. The main driving force behind this commitment is the reputational damage (a loss of sales) to a business if they were found to be flouting this agreement.

Are there specific countries where industrial trans fats are used the most? For which products?

FEDIOL:

industrial trans fats are nutrients, which can come from the hydrogenation of vegetable oils and fats and also arise during the refining process of vegetable oils and fats, as highlighted by the European Food Safety Authority (EFSA) in its opinion published in 2004.

FEDIOL does not collect data at country level but for the EU. FEDIOL does not have either data identifying in which countries and which products higher industrial trans fats are used in. This work has however already been done in the previous stages of the Commission work on trans fats. The JRC published a first report in 2013. Based on stakeholder input in which FEDIOL participated, the JRC produced another report in 2014. It served as the basis for the Commission report published in 2015 and gives an overview of the types of products and countries where higher trans fats can be used. Looking at the Commission report on trans fats (December 2015), it highlights food products such as biscuits or bakery products or popcorn where higher trans fats can be found in some countries (e.g. Sweden, Croatia or Poland are mentioned in the Commission report).

Whilst major efforts have been conducted by industry to lower trans fats levels in an overall reformulation strategy, some products can be more challenging due to the need to maintain the same functionality, taste and mouthfeel, whilst replacing trans fats.

Reducing trans fats, therefore, also involves looking for innovation in processing, using alternative raw materials, replacing trans fats by other fatty acids, using antioxidants, etc.; whilst also reducing saturated fat at the same time, as per existing EU and international recommendations.

This can prove more difficult for some products and in some countries as identified in the Commission report on trans fats. Further efforts have to be pursued.

For example, in applications like frying oils trans fats’ were replaced partially by mono unsaturated fats. In other applications where structure is needed, trans fats’ were rather replaced by saturated fat. Overall there is a decrease in SAFA, as confirmed by FEDIOL data collection.

The implementation of an EU 2% maximum limit on trans fats on fat basis in the product intended to the final consumer will create the same level playing field for all products in all EU countries.

What are the implications for FEDIOL members of the current situation whereby trans fats are being tackled by individual Member States and industry initiatives, rather than at EU level?

FEDIOL members have contributed to a decrease of trans fats content in food overall. Whilst initiatives – undertaken at national and industry level have been successful, there are still some issues identified for some types of products and in some countries – where higher industrial trans fats content can be found. Moreover, the different rules implemented across EU countries lead to possible trade and Internal Market issues. This is why and since 2014, FEDIOL has been calling for the setting of an EU max limit at 2% trans fats on fat basis in the products intended for the final consumer together with the deletion of the existing hydrogenation labelling. This will settle a level playing field for industry and eliminate the trans fats issue from the EU market.

It should also be noted that we depend on customers' request. Hence, we cannot force lowered trans fats content products to be used by customers if they prefer to rely on other solutions.

How would you define partly hydrogenated oils in Europe?

An EU definition of “partial hydrogenated oil” (PHO) linked to trans fats would be expressed as follows:

"Partially hydrogenated” means that the hydrogenation was not fully performed to the extent possible under practical conditions, correlating and results with a trans fats (TFA) content above 2% on fat basis.

It would better address trans fats in the EU context for the following reasons:

a)    Modern processing ensures that the fatty acid composition of vegetable oils and fats, including trans fats, is checked routinely by manufacturers.

b)    Legislation based on trans fats limits on fat basis in products intended for final consumers therefore, enables an easier control by authorities on the proper implementation of the hydrogenation labelling.

c)    Given the existing national legislations on trans fats, which are referring to a 2% trans fats on fat basis, similar EU harmonised legislation is aligned with such practices and therefore seems appropriate.

d)    FEDIOL code of practice on refining refers to a max 2% trans fats on fat basis to be achieved during refining. Such definitions are therefore matching current refining requirements.

e)    An EU harmonised legislation will ensure a level playing field and avoid diverging definitions across EU Member States.

f)    This is in line with the EU report on trans fats, which confirms the need for an EU solution.

On the contrary, the US definition of partly hydrogenated oil – linked to iodine value – is not the way forward for Europe. FEDIOL has prepared a detailed explanation which we are happy to further highlight. See FEDIOL 17NUT054.

IMACE:

Greater challenges have been faced in the B2B market due to difficulties in achieving product functionality while reducing trans fats input for certain specialist products. This is particularly the case for specific types of products, such as coatings, fillings and emulsifiers, used, for example in certain types of confectionary and biscuits. Such products may have low overall fat content but a high % of trans fats within this fat content.

Experiences of IMACE members are probably typical of those of the industry as a whole, though it is noted that there has been less progress to reduce trans fats in some Eastern European markets. IMACE members’ products meet similar standards to those elsewhere in Europe, but trans fats content of other products on the market (either domestically produced or imported, e.g. from Russia) may be higher.

CAOBISCO:
CAOBISCO have data that dates back from the 1990s and therefore would provide a very inaccurate picture of the reality.

Food Drink Europe: 

See above

Has your organisation (or your members) committed to reduce trans fats content in own products? In which ways?

FEDIOL:

Over the past 15 years, FEDIOL members have been supporting industry initiatives to reduce trans fats in vegetable oils and fats. Thanks to these numerous industry actions, new low trans fats vegetable oil and fat formulations are provided to consumers, enabling overall reductions in the trans fats content of food products.

The average trans fats content in vegetable oils and fat formulations has decreased over the last 15 years from 5.3 to 1% on fat basis, which corresponds to a relative decrease of 81%.

In bottled vegetable oils, refining practices also ensure that trans fats levels are well below 2% on fat basis.

CAOBISCO:

The organisation has set up a voluntary commitment to reduce TFAs in products below 2% of the total fat content. Most members have already achieved the target and those who have not are on track to achieve it in 2017.

The agreement is in fact a recommendation to CAOBISCO’s members. It has been discussed internally and has been influenced by various factors, including legislation introduced in some countries. The agreement is not being enforced via a third party certification system. All corporate members have signed up, as well as the national federations from Belgium, France, Spain, Germany, Hungary, the United Kingdom and Italy.

Is your organisation (or your members) involved in a voluntary agreement to reduce trans fats content in food?

HOTREC:

HOTREC member FIPE in Italy co-signed an agreement with the Italian food industry and the national authorities concerning the reduction of industrial trans fats contents in food for young people. It exclusively concerns categories of food from the processed/manufacturing industry (e.g. breakfast cereals, biscuits, etc.)

DEHOGA (German member of HOTREC) engaged in an initiative with the Federal Ministry of Agriculture and Food that aims to reduce trans fats in food.

As part of it, DEHOGA has produced a guide for hospitality businesses to help them with recommendations in the choice of oil and cooking methods for frying food. 2

FEDIOL:

FEDIOL alone took voluntary measures as an industry (see answers to questions above).

One example of industry voluntary actions has been the optimisation of refining processes that has led to the development of a FEDIOL Code of Practice to ensure that “during the refining process and depending on the raw material a max. 2% trans fats on fat basis can be formed (unavoidable presence).” This contributed, together with the numerous initiatives from FEDIOL members, to significantly decrease trans fats levels across the sector.

FEDIOL members also collaborate with sectors downstream to work together on reducing trans fats content in food. As explained above, this can be done by looking for innovation in processing, using alternative raw materials, replacing trans fats by other fats (saturated fats, mono unsaturated fats), using antioxidants etc. FEDIOL members offers solutions to achieve this.

Food Drink Europe: 

The voluntary approach has been very successful. The evidence for it is in the dietary intake surveys conducted at national level.

A recent development following last year’s Council conclusions: there are reformulation plans for the governments at national level, which include also trans fats.

Reformulation has been possible thanks to the fat suppliers’ efforts. They can provide products with little trans fats. Even the suppliers of functional ingredients: a few of them are able to provide products without any trans fats.

European margarine association has come up with a code of conduct to reduce industrial trans fats in B2B. This was voluntary.

In the EU Platform on diet FDE are also proposing commitments to the platform.

2 Policy options impacts

(a)    Reformulation

If products were/ will be reformulated, which ingredients replace trans fats trans fats? Are there differences by product type, firm size? [e.g. would it be more difficult to reformulate in certain countries?]

HOTREC:

Concerning industrial trans fats, examples in Austria and Denmark showed that the food processing/ manufacturing industry has options available to replace industrial trans fats. In Denmark, the Danish food administration claims that trans fats were often (but not always) replaced by saturated fats such as coconut fat and palm fat. Reformulation is something which mostly concerns the food processing/manufacturing industry, as restaurants usually do not produce themselves industrial trans fats. Concerning natural trans fats, they simply cannot be replaced in the hospitality sector.

FEDIOL:

See FEDIOL evolution of the fatty acid composition of vegetable oils and fats sold to the food industry in the EU over the last 10 years 09NUT242

Replacing levels of trans fats has been done via different ways i.e. looking for innovation in processing, using alternative raw materials and tropical oils (containing naturally a certain amount of solid fat such as in palm, palm kernel, coconut), replacing trans fats by other fats, using antioxidants, using fully hydrogenated oils etc. It depends ultimately on the customer requests in the type of vegetable oil/fat solution he needs, which is triggered by the type of products he is going to use it for. Hence, it is not possible to give an exact figure of the content of fatty acids as it depends on each end products. However, In general, whilst the trans fats level has obviously decreased to meet the FEDIOL Code of Practice but also the customers requests, the other fats have varied. Looking at FEDIOL data, a decrease of the saturated fats content along with the trans fats content was observed in 2008. This can be explained by further innovation and reformulation by the vegetable oils and fats sector that worked at reducing the saturated fats content of food products.

In certain applications like frying oils this has proven successful. For example, highly saturated fats were replaced by high oleic sunflower oil and palm olein.

Replacing trans fats has also lead to increase in unsaturated fatty acids (UFA).This is done for example by blending vegetable oils and fats to modify the fatty acid profile and improve health.

Another way is to select seeds to obtain a better profile. For example, using high oleic sunflower or rapeseed oils to replace trans fats has led to a higher mono unsaturated fats content and a better nutrition profile.

But such reformulation is less obvious for food applications, where structure is needed, where trans fats were rather replaced by saturated fats.

Fully hydrogenated oils and fats have also been used to a certain extent to replace trans fats, but this option tends to be less implemented due to the existing fully and partially hydrogenation labelling, where consumers lack understanding and tend to think that a fully hydrogenated oil is hence less healthy than a partially hydrogenated oil.

The vegetable oil and fat industry continues to invest heavily in innovation and initiatives to further address this issue.

CAOBISCO:

A member would work with their oil and fat supplier. It’s then a matter of finding an alternative. There are issues of texture, taste, etc. One may go for a blend of fats or for a fully hydrogenated oil. The disadvantage of the latter is that it must be labelled. Consumers may question that, and it may actually be understood the wrong way. For example, in the UK the Food Standards Agency has advised consumers to look for “hydrogenated” on the labels in order to detect trans fats.

Alternatively you may carry out your own R&D work at manufacturer level, which is what the big players will do.

What was the cost of reformulation? Do you have data on costs by product type, firm size?

FEDIOL:

Reducing partly hydrogenated oil usage and hence trans fats levels raises technical challenges for certain food applications. In practice, some types of food applications (such as confectionery coatings and cream, fillings, puff pastry, etc.) need to maintain the same functionality, taste and mouthfeel, whilst replacing trans fats.

This can imply challenges in terms of hardness, crystallisation speed, oxidative stability, other specific technical functions (e.g. aeration, melting behaviour, etc.).

FEDIOL does not collect data per product type.

IMACE:

IMACE members have continuously worked to develop and improve their products. As a result reductions in trans fats content have been achieved through ongoing product innovation – alongside other product improvements and health goals. Costs have therefore been absorbed in the ongoing costs of innovation and progress to date is not thought to have incurred significant additional or identifiable costs.

CAOBISCO:

Cost is not a discussion point at CAOBISCO. Manufacturers absorb the cost, in a context where they are not allowed to set the price of their products anyway (retailers set the price). The reformulation would be done silently. Besides, you would not market a product that says “has less trans fats” because that is a nutrition claim, and because it would not sell. You would look at other options, such as achieve cost savings elsewhere. If you are merely substituting one fat for another then there would be almost no cost anyway. But if you are going for a different kind of fat, and therefore you need to rework other aspects of your formula in order to achieve the same product, then you might need to do much more and that would cost more.

Food Drink Europe:

It is difficult for FDE to provide information on this. Cost data cannot be shared at federation level. Besides prices are set by retailers.

The details of what reformulation entails depend on the product. You could find a solution for any product. All you have to do is talk to your at and oil supplier and describe the characteristics of what you need. It is a dialogue with the supplier. Sometimes the installations have to be revised to make them compatible with the new fat: you will need an extractant to store one or two other oils. If the fat will be more liquid than the previous one then you will need extra sieves.

Did reformulation led to / leads to higher price for the reformulated product? How do your members handle this issue [e.g. produce small product at same price point, adjust other ingredients, pass the cost to consumers]

HOTREC:

Unknown for industrial trans fats, as the hospitality industry is not much concerned directly (only some of its supplies may occasionally be affected).

Concerning natural trans fats, they usually cannot be replaced in meals offered by hospitality businesses, so reformulation is simply not really feasible for natural trans fats.

FEDIOL:

Yes. It also involves costs for the sector in terms of resources, investments in equipment, R&D, packaging etc. Similar costs will also touch users of vegetable oil and fat. Ultimately, such costs were passed on through the chain and to the consumers at the end.

IMACE:

No impact on the price of products has been identified to date.

Are you aware of any environmental impact of reformulation decisions?

FEDIOL:

TFA reformulation per se does not have an environmental impact. FEDIOL members supports raw materials sourced sustainably– irrespective of their botanical origin. FEDIOL and its members are heavily involved in actions directed to sustainability of palm or soy for example.

Palm oil is one of the possible instruments for lowering trans fats. But reformulation has already happened in the utmost majority of cases either by using palm, or using other vegetable oils and fats or other technologies.

In the current situation where the sustainability at large, but also other issues linked to safety are raised, we would not see how actions on trans fats would lead to significant increase, as long as the situation remains as such and as long as customers impressions and issues are not solved.

As regards alternatives to palm oil, other options are not necessarily easy to implement and the whole situation is rather complex. Each solution has its own specificities and related issues. 

IMACE:

Environmental impacts are difficult to assess:

Palm oil can be a good replacement for partly hydrogenated oil, on account of its functional benefits, but is only one of the options available

Other oils (e.g. soy) also have negative environmental impacts

The industry is committed to using sustainable palm oil, such that increased use of palm oil should not lead to deforestation

Much of the required substitution has taken place already, so we would not expect a surge in palm oil consumption in response to limits on trans fats

CAOBISCO:

Not in relation to trans fats. But CAOBISCO is part of a group on palm oil and part of the discussion is on sustainable palm oil.

Swedish Food Federation:

As the organisation covers a wide range of food producers, they could not give information on exactly how all industrial trans fats would be replaced. Originally in Sweden, palm oil was seen as a good replacement. However, this is not the case anymore, with producers avoiding using palm oil due to the environmental effect and consumer demand. Other than the effect of palm oil, they were not aware of any other environmental effects. They did not think that any reformulation in the past had led to an increase in the cost of food, but did not have any data on this.

(b)    Voluntary measure/ agreement

When was the agreement introduced? When did the measures come into effect?

FEDIOL:

FEDIOL alone took voluntary measures as an industry (see answers to questions above).

One example of industry voluntary actions has been the optimisation of refining processes that has led to the development of a FEDIOL Code of Practice in 2002 to ensure that “during the refining process and depending on the raw material a max. 2% trans fats on fat basis can be formed (unavoidable presence)”. This contributed, together with the numerous initiatives from FEDIOL members, to significantly decrease trans fats levels across the sector.

In other sectors and at country level, FEDIOL members have also been involved in other voluntary measures. For example, the margarine industry has also significantly decreased the trans fats content in their products, by adopting a Code of Practice in 1995 by which margarines and fat spreads should not contain more than 2% on a fat basis.

Similar work has been done in other countries.

At the same time, this has also limitations as explained in the EU Commission report on trans fats – where some higher trans fats content are reported in some products and some countries. The implementation of an EU 2% maximum limit on trans fats on fat basis in the product intended to the final consumer will create the same level playing field for all products in all EU countries.

The setting of such EU trans fats limit hence makes the existing labelling of partially/fully hydrogenation redundant. We will explain this under c) legislative measure.

Who is involved in the agreement (number, size, types of businesses; role of industry bodies)?

FEDIOL:

FEDIOL members.

CAOBISCO:

Members, but not all of them. Some national federations have not signed up. It is not clear why.

Please outline the scope of the agreement in terms of: Types of foods covered (pre-packed/ non-prepacked; food types); Basis for the limit imposed (industrial trans fats, trans fats,partly hydrogenated oil etc); Limit imposed (%)

FEDIOL:

Types of foods covered (pre-packed/ non-prepacked; food types): refined vegetable oils and fats

Basis for the limit imposed (industrial trans fats, trans fats, partly hydrogenated oil etc) - industrial trans fats

Limit imposed (%): max 2% trans fats on fat basis

In your opinion, is there a risk of non-compliance? Are there measures in place to address this issue?

FEDIOL:

FEDIOL Codes are non legally binding as such but are observed by its members.

Please explain the arrangements for enforcing the agreement and monitoring compliance? How well have these arrangements worked? What was the cost your organisation (or your members) incurred?

FEDIOL:

FEDIOL undertook a data collection in 2009, where the outcome was that trans fats content in vegetable oils and fat formulations has decreased over the last 15 years from 5.3 to 1% on fat basis.

If members are involved in voluntary agreements how do these: monitor compliance; encourage compliance; respond to non-compliance.

Monitor compliance: through FEDIOL data collection (see above)

Respond to non-compliance: Within FEDIOL membership and whilst FEDIOL codes are non legally binding, they are positively endorsed and supported by its membership. They often serve as a benchmark for the sector. Once public, such codes are also linked to trust and reliability of the industry

How well have these arrangements worked?

Given the last data collection undertaken by FEDIOL and as highlighted in EFSA opinions in 2004, 2009, in the JRC reports in 2014 and in the Commission report in 2015, overall all industry and national measures taken have worked successfully as trans fats content has decreased and is low in the majority of food products in Europe. However, there are still some products in some countries where high industrial trans fats levels have been identified. This is why an EU 2% trans fats max limit on fat basis in food destined to the final consumer is needed.

What are the typical costs of participating in such an agreement?

Costs are related to data collection and analysis only. There are no extra costs linked to participation as the test data is provided as part of routine testing by each manufacturer and hence does not generate additional costs.

What are the principal challenges associated with reducing TFAs via voluntary agreements in the industry in the EU and how could those challenges be overcome?

In general, we see that voluntary agreements have been successful overall across EU. But looking at some types of products and some countries, some high industrial trans fats persist. Our industry develops and offers solutions to reduce trans fats, but finally it’s the customer that decides on implementation and that needs to be convinced.

Challenges are numerous and can come from different sources such as possibly as follows: the types of products where solutions are not so obvious, perhaps due to specific technical challenges, or require extra costs from the customers to adapt its recipes, awareness is maybe less a concern for some countries than others, other priorities have been set by countries than trans fats , the composition of imported non EU food is also outside the scope ….

Ultimately and as already highlighted in the Commission report on trans fats in 2015, the magnitude of impacts of such an option (in terms of all types of benefits and costs) “would clearly depend on the scope of industry participation and the coverage of food products on the market."

Under what conditions would your organisation participate in an EU level voluntary agreement: (1) to apply a 2% limit on industrial trans fats content in food;

and (2) to stop the use of partially hydrogenated oils in foods?

In general, FEDIOL prefers the setting of voluntary agreements and self-regulation to address such kind of issues. Voluntary initiatives have indeed helped to reduce trans fats over the last years.

However, in the specific case of trans fats, although much has been achieved in recent years through industry self-regulation, they have reached their limits. We do not envisage further significant reductions in trans fats by establishing an EU agreement.

FEDIOL is therefore not in favour of this option to address the trans fats issue as:

- it will not contribute to eliminating the trans fats issue across all EU countries and across all food products in the same way as would be achieved by EU legislation,

- it will maintain the discrepancies between those Member States having addressed the issue and those that did not,

- it will maintain the consumers’ confusion with the current full/partial hydrogenation labelling.

- it would not apply to non-EU food production and/or food composition

(c)    Legislative measure

What would be the economic burden for your organisation (or your members) of understanding legislation on industrial trans fats /partly hydrogenated oil content in food?

HOTREC:

Concerning policy options about industrial trans fats:

A ban on partly hydrogenated oil would impact mostly the food processing/ manufacturing industry, but would not impact much hospitality businesses, as they do not use partly hydrogenated oil and do not produce industrial trans fats. A ban may impact some supplies in some hospitality businesses bought from wholesale in case of short transition periods.

Concerning a possible establishment of a limit on industrial trans fats: experience shows impact is limited or non-existent for the hospitality industry: industrial trans fats contained in meals prepared by hospitality businesses are only the result of the content of such trans fats in supplies bought from the processing industry. If the supplies are already below the limits, food prepared by hospitality businesses will always be below the limits. Moreover, the majority of hospitality businesses cook dishes with raw products (and do not produce industrial trans fats), meaning that they will easily comply with limits.

Concerning an obligation to indicate trans fats content of foods in the nutrition declaration: hospitality businesses offer non-pre-packed meals and do not have at EU level any obligation to provide a nutrition declaration, though Member States may decide otherwise at national level. In general, nutrition declaration are a completely disproportionate burden for hospitality businesses producing non-prepacked food for immediate serving/consumption, are extremely expensive, and may prevent businesses from changing their menus regularly depending on local/daily supplies (therefore limiting innovation and decreasing quality). Therefore, creating an obligation for hospitality businesses to indicate industrial trans fats content in nutrition declaration would be an unbearable burden for the vast majority of hospitality businesses, while being completely disproportionate given the fact that hospitality businesses do not create industrial trans fats themselves (industrial trans fats contents are usually the result of the content in the supplies which were bought from the processing industry, while the majority of hospitality businesses cook raw materials, therefore not producing any industrial trans fats).

FEDIOL:

Since 2014, FEDIOL supports the introduction of an EU trans fats legal limit.

Introducing an EU trans fats legal limit will:

consolidate progresses made on a voluntary basis,

ensure a level playing field to food business operators across EU Member States (due to the multiplication of national trans fats legislations) and for imports from 3rd countries,

eliminate the trans fats issue and establish the same standard across all EU countries. 3

Reflecting on how to eliminate the trans fats issue across EU, FEDIOL strongly advocates the introduction of an EU trans fats legal limit which is:

based on a 2%* trans fats on fat basis in products intended to final consumers applicable to non-ruminant trans fats

The EU legal limit would only apply to non-ruminant/industrial trans fats not because of health grounds, but because of technical reasons. In practice, “technically, ruminant trans fats cannot be covered by this measure as trans fats are formed (…) in relatively stable proportions in ruminant fats, and cannot be avoided in ruminant products (…)”.

*The 2% trans fats legal limit on fat basis is equivalent to the 2g trans fats per 100g of oil/fat, in the product intended for the final consumer.

With the introduction of such an EU trans fats limit legislation as described above, the existing fully/partially hydrogenation labelling will not have any “raison d’être” anymore and should be deleted for the following reasons:

one of the rationale behind such labelling was to inform consumers on the presence of partially hydrogenated oils which contain much higher trans fats levels than 2%, contrary to fully hydrogenated oils where trans fats levels are below 2% trans fats. With such a new EU trans fats 2% legal limit, all those high non-ruminant trans fats food products will be gone from the EU market as they will be forbidden in Europe.

consumers do not know the difference between partial (“partly” according to Regulation 1169/2011) or fully hydrogenated oils.

consumers confuse both terms, thinking that products labelled as fully hydrogenated contain high levels of trans fats.

Hence, if an EU trans fats legal limit was to be introduced whilst keeping the current mandatory hydrogenation labelling, consumers would continue to think fully hydrogenated oils and food products thereof contain high trans fats levels. This would further mislead consumers and lead to discrimination for the vegetable oil and fat sector and particularly for all sectors using such ingredients.

This lack of consumers understanding has been demonstrated in studies and in the Commission report on trans fats, which states that “(…) the little information available suggests that the majority of Europeans do not know about trans fats (…) partially hydrogenated or fully hydrogenated oils. (…)”.

What are the expected consequences for FEDIOL members of the EU legislating to limit trans fats content to 2% of fat?

It is difficult to estimate possible consequences.

The major steps in trans fats reduction took already place in the past (cf. Fediol data collection). For the majority of applications, solutions have been developed and are available. All associated costs were already made by our industry in the past.

In general, we do not anticipate substantial impacts, as all bottled vegetable oils and fats are already below 2% as per FEDIOL Code of Practice. Ultimately, it will depend on what customers are requiring and the types of solutions (as already emphasised above) they will want to have for their products.

What changes would occur in the market if such a limit was introduced? What changes, if any, would such legislation prompt in the formulation of members’ products?

Again, it is difficult to estimate. From one side, the issue has already been addressed for most of sectors where this is not an issue anymore. For other sectors and some products in some countries as highlighted in the Commission report in 2015, such work could be more challenging and could involve either technological adaptations or higher costs. But it is not possible to state which vegetable oils/fats solutions would be used instead in these cases as there are various different options such as for example, the types of botanical oils i.e. use of palm oil or high oleic sunflower oil, rapeseed oil or change in production process i.e. full hydrogenation. Often it is a combination of those options which is used to get a final product with a better health profile whilst keeping the needs of the specific final product. Such recipes cannot be changed overnight and require adaptation.

It is important to have maximum flexibility in the choice of raw materials that replace high trans fats products. This can help to minimise costs for adaptations at customer level.

One can also raise the question as to whether this could lead to having some products disappearing from the market. This will mostly depend on available solutions and costs of final products and what customers want.

IMACE:

This would be IMACE’s favoured option. Because 2% limit has already been achieved, such a limit would not impose additional costs on the sector but would consolidate gains achieved to date. Imposing a legal limit would contribute to consumer certainty and remove the need for labelling.

IMACE would favour a differential limit for low fat products. This is because technical challenges make it difficult to eliminate trans fats for specialist ingredients (e.g. coatings, fillings and emulsifiers as mentioned above) which are used in small quantities. In such cases it may be difficult and costly to reduce trans fats to less than 2% of overall fat content, even though it may account for a tiny proportion of overall nutritional content.

CAOBISCO:

There would be no issue. CAOBISCO, will draw guidance following legislation. The cost is borne by the secretariat.

Food Drink Europe:

FDE had quite some discussion internally on this matter. As a general principle FDE’s members feel that the success of voluntary agreements has been such that there is a preference to continue that way instead of regulating. But there is also acceptance by many of being able to comply with legislation.

Looking at the small companies they do not necessarily have the means to comply. It is not a matter of will. It is more a matter of know-how and containment of costs.

FDE support the recommendation to set a limit of a maximum of 2% , et discussed. This can be achieved by voluntary agreement or legislation.

What would be the economic burden for your organisation (or your members) of changing labels in your products? Would this be more burdensome for SMEs?

HOTREC:

Hospitality businesses do not use label, as they produce non-prepacked food/meals for immediate consumption. New labelling/information obligations would be extremely costly and likely to be unfeasible by the majority of hospitality businesses (91% being micro-enterprises, 99.5% being SMEs).

FEDIOL:

For vegetable oils and fats, we do not anticipate costs linked to the changing of labels due to the setting of a 2% trans fats legal limit. This is because all bottled vegetable oils and fats are already below 2% as per FEDIOL Code of Practice.

The situation would be completely different if a trans fats labelling content was introduced. We will explain under section d) why such labelling is really not the way forward in Europe.

CAOBISCO:

IT would depend on the range of the proposed obligation. If we look at having to label the total trans fats content, then it requires analysis, which has one type of cost. There is no method to distinguish naturally occurring trans fats from industrial trans fats. You can do it at ingredient level. You can’t distinguish ruminant trans fats and industrial trans fats on a label: that would only confuse consumers.

As long as a transition period is possible, then the cost can be incorporated in the product changes that will be made anyway. Every now and then companies change the product. Ideally you would change the label when you change the product. That is what was available with the Food Information Regulations, which means you could combine the different label changes together.

Would it be a necessity to label if intake levels are already below 2%?

Food Drink Europe:

FDE are playing with the idea of making a toolbox on reformulation. Make a decision tree of what you need to do. That would be a technical document, exploring what one fat could be replaced with, and what one would need to look at when considering reformulating their product. It is important that SMEs receive the required technological support. That way you can mitigate the costs. It would be even better if it was carried over by the EC and the industry. There was something similar on acrylamide: a code of practice has been published on the EC’s website for anyone who is interested in reducing acrylamide in food products. Something similar could be done here.

Are you aware of any industrial trans fats detection method? What is the testing capability in your sector?

HOTREC:

Not aware. Testing capabilities are extremely limited as the sector is completely dominated by micro-enterprises and SMEs, and as hospitality businesses are subject to light/flexible hygiene requirement in application of HACCP rules.

FEDIOL:

Modern quality control procedures ensures that the fatty acid composition, including the amount of trans fats, of vegetable oils and fats, is checked routinely by manufacturers. Having an EU 2% legislation and using the trans fats parameter for a definition of fully/partially hydrogenated oils is possible to do in official controls done by authorities. We understand that this is how it works in those countries like Denmark or Austria, where there has been a legislation on trans fats already for some time. In addition, analytical methods exist today to test the trans fats content in the final food product sold to the consumers (e.g. biscuits, margarines, ready-made meals etc.).

As indicated above, using iodine value (IV) as specified in the US legislation to identify the potential presence of partially hydrogenated oils in products sold to the consumers is not always possible as vegetable oils and fats are only one ingredient of the product. Furthermore, fully hydrogenated oils and fats are often used in combination with other vegetable oils and fats. The other vegetable oils and fats will have in many cases higher IV values, whilst being below the 2% trans fats limit.

We understand that when testing end food products containing both ruminant and industrial trans fats (e.g. a biscuit or a margarine with both butter and vegetable oils/fats), there are analytical methods available today (e.g. GC-MS method) which enables to test the trans fats levels and quantify them in general.

However, it is not possible today to our knowledge to separate precisely ruminant from non ruminant trans fats directly using an analytical method. Indeed, there can be an overlap between the two sources of trans fats in some of the specific trans fats molecules. This is, among others, the case where levels of one origin are very low (e.g. a fat blend with both vegetarians fable and animal fat origin). An estimation of the non ruminant trans fats content in a product where both ruminant and non ruminant trans fats are present, can only be done by calculating the total trans fats(ruminant and non ruminant content) based on the quantity and type of dairy ingredients in the product.

It would also be important to know in advance the various ingredients used.

IMACE:

IMACE members test products regularly, typically once per year.

It is not currently feasible to test specifically for industrial trans fats – so tests cover total trans fats content. As members do not supply products with ruminant trans fats, total trans fats= industrial trans fats for members’ products. However, trans fats in end products may include ruminant trans fats(e.g. from dairy products) as well as industrial trans fats. A calculation would be needed to assess industrial trans fats content.

IMACE does not have data on the costs of product testing – however, it may be possible to ask members for this.

CAOBISCO:

There would be four ways: (i) you analyse the product (ii) you analyse the ingredients (iii) you rely on suppliers to tell you (iv) you rely on nutrition data.

Food Drink Europe: 

That is a very technical question. There is a discussion at the Codex Alimentarius, a committee on methods of assessment and sampling is working on establishing the conditions of a “free trans fats” claim. At the last meeting it was said that it would be very difficult to accurately detect the level of trans fats in food products. It was also said that it would be difficult to establish a single level of trans fats in food. There will be a follow up discussion at the CA in November or December. It would be important to give account of that discussion.

In case of a 2% limit, what share of your members would need to reformulate their products? To what extent would SMEs be affected?

HOTREC:

If a 2% limit on industrial trans fats applies to all products sold by the food processing/manufacturing industry, hospitality businesses should not have difficulties, as the majority of restaurants cook dishes with raw ingredients, and when there are industrial trans fats content in meals served by hospitality businesses it is usually only the result of industrial trans fats content in supplies acquired from the processing industry.

What matters for the hospitality industry is that any legislative measure focuses exclusively on industrial trans fats, leaving aside natural trans fats (which simply cannot be replaced in the hospitality sector). Moreover, labelling/information obligation are disproportionate/unfeasible in the restaurant sector given its structure (micro-enterprises) and operating methods (non-standardised food, change of ingredients/supply menus on a very regular basis – e.g. menu of the week, dish of the day, etc.)

FEDIOL:

NO available FEDIOL information on this so far. From the feedback we gather, setting an Autrans fats limit of 2% on fat basis in food destined to consumers is not expected to have big impact on the sector, as many efforts have already been achieved in the last years to reduce trans fats content.

If such 2%trans fats legislation was adopted, what level of effort would a typical firm have to invest?

FEDIOL does not have data to answer, also given the too short time between receiving the question and answering (2 days). We do not anticipate substantial efforts for FEDIOL members within the vegetable oil/fat sector. Having said that, the discussions and work taking place between FEDIOL members and their customers in their quest for the best solution fitting their products should not be forgotten. But we cannot answer for other players or other sectors.

How could the costs or disruption of such a requirement be minimised?

It is important to have maximum flexibility in the choice of raw materials that replace high trans fats products. This can help to minimise costs for adaptations at customer level.

A clear asset – which FEDIOL and many other sectors have been advocating for years – would be to have the deletion of the fully/partially hydrogenation labelling deleted.

Food Drink Europe:

FDE would hope that other models are considered as well, such as the Austrian model which is more nuanced.

Swedish Food Federation:

As most food produced in Sweden is already below the suggested regulatory level, the legislative measures would have little impact in Sweden. There may be a slight cost to some firms to change recipes and labels, but this would be a minority, and given the experience of firms in Sweden previously, it would not be a large cost. There would be no additional costs for testing or monitoring, as this would be incorporated into existing control specifications. New industrial standards come in fairly regularly, so producers are used to changing the things they monitor and build it into their existing costs. So it is estimated that there is no additional cost.

(d)    Labelling

What would be the economic burden for your organisation (or your members) of understanding a new obligation to indicate the TFAs content of foods in the nutrition declaration?

FEDIOL:

FEDIOL strongly believes that mandatory trans fats labelling is not the way forward. It would further increase consumer confusion and lack of awareness in general on what is written on the label.

Instead, in order to consolidate progresses made on a voluntary basis and ensure a level playing field applicable to food business operators across Member States (due to the multiplication of national legislation), introducing EU legislation setting a 2%trans fats limit on fat basis would better address the issue. It would eliminate the trans fats issue across all EU countries once and for all.

This is confirmed by many studies such as:

Stender S. et al., Tracing artificial trans fat in popular foods in Europe: a market basket investigation. BMJ Open 2014 which states that “The effectiveness of policies for reducing dietary trans fats was recently assessed based on studies published between 2005 and 2012 It was found that ‘bans were most effective in eliminating trans fats from the food supply, whereas mandatory trans fats labelling and voluntary trans fats limits had a varying degree of success’. This statement is strongly supported by the findings in the present study concerning the current availability of popular foods with high amounts of industrial trans fats in Europe, thus lending support to a legislative TF restriction by the EU. This is a low hanging fruit to pick in the prevention of coronary heart disease among 500 million EU citizens.”

Downs S. et al., the effectiveness of policies for reducing dietary trans fat: a systematic review of the evidence, Bulletin of the World Health Organization 2013.“Our observation that national and local bans were far more effective than mandatory trans fats labelling reflects the Danish Nutrition Council’s decision to opt for a ban when considering how to remove trans fats from the food supply. Labelling policies have several limitations. First, trans fats intake can remain extremely high in pockets of the population. In Canada, even after mandatory labelling led to 76% of foods meeting voluntary trans fats limits, intake in the population still exceeded the WHO recommendation that less than 1% of dietary energy intake should come from consuming trans fats. In particular, intake by teenage boys was double the recommended level. Second, some foods with low trans fats levels are costlier, which will be felt more by consumers with a low socioeconomic status. Ricciuto et al. found that some margarine companies in Canada offered products with a low trans fats level while continuing to sell products with a high level at a lower price. Thus, price-conscious consumers would be more likely to consume the less healthy product, thereby increasing their risk of diet-related chronic disease. Third, for labelling regulation to be effective, the population must be both aware of trans fats and able to interpret nutrition labels accurately. In high-income countries, where literacy levels are high, labelling is more likely to be effective in reducing trans fats intake than in low- and middle-income countries.”

It should also be noted that if this option was chosen, it would target both ruminant and industrial/non ruminant trans fats, as highlighted in the Commission report on trans fats. Hence, in that case, the labelling would need to include the total trans fats content – from both ruminant and non ruminant.

IMACE:

IMACE members previously labelled trans fats content of their products. This helped to provide information to consumers, though effectiveness may have been limited by consumer awareness of trans fats.

Current rules regarding labelling of partially and fully hydrogenated oils are unhelpful, because of a lack of consumer understanding. As a result, the current rules unfairly and unnecessarily stigmatise the sector.

Labelling of trans fats would be preferable to the current rules relating to partly and fully hydrogenated oils. Any such labelling should cover whole trans fats content because this determines health impacts.

Companies regularly review and update product labels. Therefore, if there was a sufficient lead-in time for a new labelling requirement (e.g. 2 years or more) it should not have significant costs.

Food Drink Europe:

A new obligation to indicate trans fats level on food products would be a huge undertaking, similar to the FIR. Entire management systems have to be changed. This is broader than changing a label. That is an option that FDE would not support. If there was a desire by policymakers to go for a regulatory limit on industrial trans fats FDE would request a deletion of the obligation to label partially hydrogenated oil on food products.

Consumers do not understand the difference between fully and partially hydrogenated. There is also confusion among smaller producers about those terms. From a consumer understanding this is not working. A total ban on trans fats is not realistic and feasible.

Costing the burden is something to ask individual companies about. The FIR required relabelling of 30,000 products. The cost of change in one SKU is what needs to be ascertained.

From a theoretical point of view, the costs might be higher for the bigger companies because they have more products, but smaller companies might not have the resources to do the analysis. They will need to outsource the work.

What would be the economic burden for your organisation (or your members) of testing iTFA/partly hydrogenated oil in your products? Would this be more burdensome for SMEs?

HOTREC:

See above: very high impact / completely disproportionate given the origins of industrial trans fats.

FEDIOL:

Modern quality control procedures ensures that the fatty acid composition, including the amount of trans fats, of vegetable oils and fats, is checked routinely by manufacturers. Having an EU 2% legislation and using the trans fats parameter for a definition of fully/partially hydrogenated oils is possible to do in official controls done by authorities. We understand that this is how it works in those countries like Denmark or Austria, where there has been a legislation on trans fats already for some time. In addition, analytical methods exist today to test the trans fats content in the final food product sold to the consumers (e.g. biscuits, margarines, ready-made meals etc.).

Would the labelling requirement mean that any additional testing of products would be required? If so, what would be needed and how many tests would be required?

We clearly see no benefit in such option. Also, the impacts of the labelling change should not be underestimated. All labels have been changed recently following the FIC implementation and any change will require additional costs for the entire food industry.

As the labelling option would target both ruminant and non ruminant trans fats (as highlighted in the Commission report on trans fats2015), we can anticipate quite numerous extra costs required for the dairy sector and for all products containing dairy fats, as well as for the vegetable oils and fats sector and food products containing vegetable oils and fats or both dairy and vegetable oil/fat. This is also irrespective of whether there is any benefit in such an option and of the changes in labelling.

Ultimately, we see huge impacts and either loss in flexibility given and volatility of costs or the need to change labels continuously to adapt to changing trans fats content.

If the EU was to legislate to require nutrition declarations to include details of the trans fats content what would be the impact on FEDIOL member firms?

This would have clear impacts as it would mean a complete change of the way industry is functioning and a change of all labels. We would also have strong objections on the approach behind, knowing the lack of consumers understanding on labels. If bottled oils need to be labelled, the impact could be very negative, since they could be seen as a source of trans fats, while in reality the mono unsaturated fats and poly unsaturated fats have a very positive effect. Even at very low levels of presence, the consumer could consider trans fats as a contaminant. This could give a wrong stigma to bottled oils, with a very negative impact on the whole Oils and Fats business.

If such legislation was adopted, what level of effort would a typical firm have to invest (expressed either in person days or euro) in: review of the legislation and appraisal of the implications for the firm; internal staff communication/engagement; supply chain communication/engagement; customer communication/engagement; changes to product labels and product documentation; or other (please specify).

Given the short time it is impossible to provide detailed figures. Comparing it to other assessments done for other issues (origin labelling), adding on top a labelling and having to add the measurement of exact trans fats content on labels will entail clear changes in the sector. Whilst FEDIOL members deliver vegetable oils and fats as per FEDIOL Code of refining ensuring that no more than 2% trans fats is produced during the refining and whilst testing of trans fats content is done routinely, this is not an information which is passed to customers today as this is not a mandatory EU requirements.

Hence, this means that additional costs will come from:

- tracking the trans fats level in each batch/product delivered to customers

- possible stocks of every batch given the fluctuations intrans fats content

- adding this information up to the customers (vegetable oil/fat as ingredient) or to the consumer directly (labels for bottled oils)

- additional work force required

- lack of flexibility for customers using the vegetable oils/fats

We can anticipate that this would generate substantial costs. We are currently working on a more detailed economic assessment which we will share in the coming weeks.

The additional costs for the processors would be passed on to the next steps in the processing, then to the retailers/wholesalers and ultimately to the consumers who would have to pay a higher price on each bottled oil bought. The price of a bottled oil, irrespective of its botanical origin, would rise.

Would the labelling requirement mean that any additional testing of products would be required? If so, what would be needed and how many tests would be required?    

As highlighted above, such tests are routinely done. This is done to ensure that the product complies with the requirements and specifications set. But the exact levels is not necessarily passed on to the chain. Adding this extra requirements will have clear impacts for the sector and for downstream users. It will also add to the complexities of end products producers to ensure the exact figures are set, and hence any change of the recipe will have to be weighted against the changes of the labelling that this will have.

What would be the typical cost of amending a label to introduce details of the trans fats content to the nutrition declaration?    

See above. Several thousands euros will have to be added to change the labels – for those going directly to bottled oils and fats - and add this extra information in top of what exists today. Such costs would include the design, reprint of labels etc.

How many label designs would need to be changed across FEDIOL members?    

All labels for bottled oils and fats will have to be changed. But also all products where vegetable oils are an ingredient.

How frequently, on average are such labels updated or ‘refreshed’ (in the absence of new legislation / regulatory requirements)?    

It is difficult to estimate as there are often changes due to new legislation/labelling requirements.

How could the costs or disruption of such a requirement be minimised?

We do not see how this would be minimised, except by not introducing such labelling requirement at all but rather set an EU trans fats max limit on 2% in final product for the final consumer.

On average, how many products would be affected in your opinion?

Swedish Food Federation:


They did not believe that it would be possible to introduce the labelling legislation. This is because for some products, it would not be possible to say the exact amount of industrial trans fats in a product. Even where it is possible, they do not think it would be a good idea. This is because consumers do not know what a high or low level of industrial trans fat is. As soon as they see a label with industrial trans fats on it, they will think it is a bad product, even if the level of industrial trans fats is low and within any guidelines.

(e)    Prohibition of the use of partially hydrogenated oils in foods

If the EU was to legislate on use of partially hydrogenated oils in food what would be an appropriate definition to use?

FEDIOL:

FEDIOL does not support the US approach which “bans” partly hydrogenated oils for the following reasons:

It sets a dangerous precedent in banning a process.

It will clearly also impact on consumer perception overall on hydrogenation. Already today, there is a clear lack of consumer understanding on trans fats or on hydrogenation. Banning the partial hydrogenation will also have consequences on the use of full hydrogenation in the future, as consumers will not understand the difference between the 2 hydrogenation process – where one is banned and the other is allowed.

The US approach is not relevant as it targets a process rather than a nutrient

As highlighted in the EU Inception Impact Assessment on trans fats, “consumption of trans fats (…) increases the risk of heart disease more than any other macronutrient compared on a per calorie basis.”

It is therefore more relevant to limit the level of a nutrient with an adverse health profile –trans fats in this case - than a process - partial hydrogenation of oils and fats.

The US approach is not clear and difficult to understand for consumers

Setting a 2 %trans fats max limit is clearer and easier to understand from a consumer perspective, as advocated by EU consumers’ organisation.

The US approach does not fit the EU system

The US approach is not in line with the overall approach and objectives pursued in Regulation (EU) No 1169/2011 on Food Information to Consumers and in Regulation (EC) No 1924/2006 on nutrition and health claims. It is contrary to findings of the EU Commission report , which states that “Although average intake in the EU has been reported below nationally and internationally recommended levels, this is not true for all groups of population. Food products with high industrial trans fats content are available on the market and there are public health gains to be reaped by reducing intake.”

It does not take into account scientific and technical progresses.

Having said that and answering the question of the definition, an EU definition of “partial hydrogenated oil” (PHO) linked to trans fats would be expressed as follows:

“Partially hydrogenated” means that the hydrogenation was not fully performed to the extent possible under practical conditions, correlating and results with a trans fats (TFA) content above 2% on fat basis.

It would better address trans fats in the EU context for the following reasons:

a)    Modern processing ensures that the fatty acid composition of vegetable oils and fats, including trans fats, is checked routinely by manufacturers.

b)    Legislation based on trans fats limits on fat basis in products intended for final consumers therefore, enables an easier control by authorities on the proper implementation of the hydrogenation labelling.

c)    Given the existing national legislations on trans fats, which are referring to a 2%trans fats on fat basis, similar EU harmonised legislation is aligned with such practices and therefore seems appropriate.

d)    FEDIOL code of practice on refining refers to a max 2%trans fats on fat basis to be achieved during refining. Such definitions are therefore matching current refining requirements.

e)    An EU harmonised legislation will ensure a level playing field and avoid diverging definitions across EU Member States.

f)    This is in line with the EU report on trans fats, which confirms the need for an EU solution.

On the contrary, the US definition of partly hydrogenated oil – linked to iodine value – is not the way forward for Europe. FEDIOL has prepared a detailed explanation which we are happy to further highlight. See FEDIOL 17NUT054.

What is the volume / value of the products in the EU that would be affected by such legislation?

FEDIOL:

FEDIOL does not have data.

What would be the consequences for the EU market for oils and fats of prohibiting use of partially hydrogenated oils in foods? What specific changes would occur?

FEDIOL:

Basically the same consequences as a max 2 % trans fats level, but with even more negative consequences as flexibility would be limited due to the banning of a process.

What are the expected consequences for your members in the EU legislating to prohibit partially hydrogenated oils from being used in food?

FEDIOL:

The US type approach goes against all national and voluntary measures undertaken so far in Europe. Rather than looking at the impacts, the approach should be challenged.

It suppress any flexibility for food business operators in finding tailor-made solutions for each customers products

It is difficult for a consumer to understand. Particularly in the case where the fully hydrogenation is still one of the solutions to address trans fats.

The implementation of the same iodine value definition than in USA will lead actually to higher trans fats on the market compared to setting a max 2% trans fats legal limit.

It contradicts previous voluntary and national regulatory initiatives taken in Europe for many years.

It goes against the overall approach and objectives pursued in Regulation (EU) No 1169/2011 on Food Information to Consumers and in Regulation (EC) No 1924/2006 on nutrition and health claims.

It does not take into account scientific and technical progresses.

Ultimately it also sets a dangerous precedent in banning a process.

IMACE:

IMACE would oppose an EU limit on partly hydrogenated oil because:

There are problems in defining and measuring partly hydrogenated oil content. A robust definition of partly hydrogenated oil is lacking. The US definition based on iodine content is unreliable as an indicator of trans fats. FEDIOL may be able to provide more details.

It would be better to target trans fats, which are more directly related to health impacts. Limiting trans fats content is more closely related to the health objective of limiting consumer trans fats intake.

Eliminating use of partly hydrogenated oil would be disproportionately costly, because of the difficulties imposed on particular suppliers of specialist products.

(f)    Conclusions and Future Policy

Are the measures regarded as a success in your sector?

FEDIOL:

FEDIOL actions have been successful in reducing significantly trans fats content in their products. However, and as highlighted in the Commission report, there are still high content in some products in some countries.

There is also a clear lack of consumers knowledge on trans fats and on the difference between partially and fully hydrogenated oil. Due to this, consumers believe that products containing partially hydrogenated oils are “safer” than fully hydrogenated oils.

This is why FEDIOL strongly believe that the only ways forward lies in:

The setting of an EU 2% non-ruminant trans fats legal limit on fat basis in products intended to final consumers.

TOGETHER WITH

The deletion of the existing full/partial hydrogenation labelling as prescribed by Regulation (EU) No 1169/2011

An EU 2% maximum limit of trans fats on fat basis in the product intended to the final consumer would therefore set a level playing field across Europe, get rid of the higher levels still present on the market in some EU countries and prevent the imports of high trans fats products from 3rd countries. Such deletion of labelling would finally avoid consumer confusion and lack of understanding. All in all, the 2 measures will contribute to a better regulatory framework.

What lessons have been learnt regarding implementation? In hindsight, would the organisation do anything differently if it had the chance again?

Are there any plans for new rules? Are there any plans to modify or extend the existing rules or arrangements for their implementation? If so, what are these plans and why?

FEDIOL:

There are no plan to modify FEDIOL Code of Practice. Actions at the level of industry has contributed to improve the situation. But there are still pockets of issues in some countries in some products and there industry actions has also some limits.

In this context, to tackle the situation once and for all, the only way forward is to:

Set an EU 2% non-ruminant trans fats legal limit on fat basis in products intended to final consumers

TOGETHER WITH

the deletion of the existing full/partial hydrogenation labelling as prescribed by Regulation (EU) No 1169/2011

What can the EU and other countries learn from the experience in your country?

No information provided.

Would you welcome the introduction of EU wide measures to limit industrial trans fats? If so, what type(s) of measure would you support and why?

HOTREC:

Labelling on pre-packed products is acceptable. Limit on industrial trans fats also acceptable. No obligation for non-prepacked food, no testing obligation.

FEDIOL:

YES.

As highlighted, FEDIOL supports since 2014 the setting of an EU 2% non-ruminant trans fats legal

limit on fat basis in products intended to final consumers

TOGETHER WITH

the deletion of the existing full/partial hydrogenation labelling as prescribed by Regulation (EU) No 1169/2011.

In this context, we support the Danish approach by which an EU trans fats legal limit would be based on a 2%*trans fats on fat basis in products intended to final consumers. *The 2%trans fats legal limit on fat basis is equivalent to the 2gtrans fats per 100g of oil/fat, in the product intended for the final consumer.

Such a 2% trans fats limit is:

- in line with existing national initiatives such as in Denmark, Austria or Hungary,

- in line with EFSA acknowledgment that trans fats are close to 1 to 2% Energy in Europe,

- enabling to get rid of higher levels found in countries such as Croatia, Sweden, Bulgaria, Slovenia or Poland as per the Commission report on trans fats,

- consistent with the FEDIOL Code of Practice on refining, which ensures that, during refining, no more than 2% trans fats on fat basis is formed, including in bottled vegetable oils.

With the introduction of such an EU trans fats limit legislation as described above, the existing fully/partially hydrogenation labelling will not have any “raison d’être” anymore and should be deleted for the following reasons:

- one of the rationale behind such labelling was to inform consumers on the presence of partially hydrogenated oils which contain much higher trans fats levels than 2%, contrary to fully hydrogenated oils where trans fats levels are below 2% trans fats. With such a new EU trans fats 2% legal limit, all those high non-ruminant trans fats food products will be gone from the EU market as they will be forbidden in Europe.

- consumers do not know the difference between partially (“partly” according to Regulation 1169/2011) or fully hydrogenated oils.

- consumers confuse both terms, thinking that products labelled as fully hydrogenated contain high levels of trans fats.

Hence, if an EU trans fats legal limit was to be introduced whilst keeping the current mandatory hydrogenation labelling, consumers would continue to think fully hydrogenated oils and food products thereof contain high trans fats levels. This would further mislead consumers and lead to discrimination for the vegetable oil and fat sector and particularly for all sectors using such ingredients.

This lack of consumers understanding has been demonstrated in studies and in the Commission report on trans fats, which states that “(…) the little information available suggests that the majority of Europeans do not know about trans fats(…) partially hydrogenated or fully hydrogenated oils. (…)”.

On the contrary, FEDIOL does not support the US approach which “bans "partly hydrogenated oils. As highlighted in the EU Inception Impact Assessment on trans fats, “consumption of trans fats (…) increases the risk of heart disease more than any other macronutrient compared on a per calorie basis.”

It is therefore more relevant to limit the level of a nutrient with an adverse health profile –trans fats in this case - than a process - partial hydrogenation of oils and fats.

It is also clearer and easier to understand from a consumer perspective, as advocated by EU consumers’ organisation.

It also fits the EU regulatory system and public health platform better, as it is in line with the overall approach and objectives pursued in Regulation (EU) No 1169/2011 on Food Information to Consumers and in Regulation (EC) No 1924/2006 on nutrition and health claims. It is also confirmed in the EU Commission report , which states that “Although average intake in the EU has been reported below nationally and internationally recommended levels, this is not true for all groups of population. Food products with high industrial trans fats content are available on the market and there are public health gains to be reaped by reducing intake.”

Also, it does not take into account scientific and technical progresses.

IMACE:

IMACE reiterated the following key points:

Total and not just industrial trans fats should be considered when examining health effects

The 2% limit has already been achieved by members. These efforts should be consolidated, but eliminating trans fats completely would have disproportionate impacts

The focus should be on trans fats, not on partly hydrogenated oil

Food Drink Europe:

As mentioned above FDE supports the 2% limit but would invite a nuanced approach such as that implemented in Austria. FDE’s preference is through voluntary agreements, which work well. But FDE would also work to comply with a legal obligation. FDE does not favour a labelling obligation.

Swedish Food Federation:

 
The model currently used in Austria would be the preferred option. But as stated earlier, reducing the consumption of industrial trans fats is only tackling part of the problem.

The measures currently in place in Sweden are seen as a success. Other countries could learn from the Swedish experience in both this field and others – it is fruitful to have an open dialogue between concerned parties and form a commitment on the way to proceed.

What consequences, if any, would the proposed measures have

for export of products beyond the EU?

FEDIOL:

The EU system is a very complex system which enables a high safety and quality standard of all products complying with it. We do not see major consequences for exports of vegetable oils/fats outside the EU. But it will impact on final products (biscuits etc.) manufactured in EU but exported outside EU.

IMACE:

In general a small % of production is traded internationally. Therefore members are more affected by standards in the domestic market than in export markets, and the risk of low cost imports meeting lower standards is not significant.



ANNEX 30: Aggregated evidence for each type of impact: a list of indicators; the description of the evidence obtained, either quantitative or qualitative; and sources for that evidence

Indicators and sources

Table 60 Indicators, data and sources

Economic Impacts

Judgement criteria

Indicators

Description

Source

Costs

Extent and nature of affected activities – numbers and types of businesses, types product and levels of trans fats content, nature of production processes
Strategies to reduce
 industrial trans fats s in food
Types of operating costs affected (e.g. costs of ingredients, costs of production, costs of information and labelling)

One-off costs of intervention
to FBOs, e.g. learning and familiarisation costs (aspect of admin burden)
Type, nature and extent of investment required to reformulate products 

Number of active food businesses within scope of each option

Number of enterprises by food industry sector, depending on the option one or more sectors should be counted

Eurostat

See Annex 8

Estimates of number of food businesses producing products with  industrial trans fats

NA

Value of output of products containing  industrial trans fats (€)

NA

industrial trans fats content of different food types /  industrial trans fats ‘hot spots’

TFA content in food is described by data collected through a literature review of existing studies

Annex II–Table S2. Food products with trans fatty acid content of ≥2g per 100g of total fat
http://publications.jrc.ec.europa.eu/repository/bitstream/JRC91353/lbna26795enn.pdf

Typical cost of product reformulation process (per product/ business, €)

The available evidence suggests that the costs of product reformulation are likely to vary widely, from zero to upwards of EUR 100,000, depending on the complexity of the product to be reformulated, the technical challenges involved, the extent of required changes in the production process, the position of the product in the supply chain, the timescale over which reformulation is required, and the degree to which changes can be addressed through ongoing product development activities.

Country research

JRC workshop Trans-fatty acids in diets – Health and legislative implications (Mouratidou et al, 2013)

Cost of ingredients

In order to assess the potential increased cost of food ingredients as a result of reductions in  industrial trans fats in food products, the following assumptions were made based on the available evidence:

- All products exceeding limits on  industrial trans fats or partly hydrogenated oils will require a change of ingredients, substituting partly hydrogenated oils for alternative fats and oils;

- Food ingredients account for 41% of the value of output of the products affected ;

-partly hydrogenated oils account for 5% of the overall value of ingredients used in products currently exceeding the 2%  industrial trans fats limit;

- Substitute fats and oils are 25% more expensive than partly hydrogenated oils.

Country research

JRC workshop Trans-fatty acids in diets – Health and legislative implications (Mouratidou et al, 2013)

Magnitude of increase or decrease in ongoing operating costs under each option
Time profile and duration of cost changes

Distribution of costs between different types of business

Possible mitigating/ transitional measures

Reporting costs per firm associated with each specific option

Whether conditions are favourable for a voluntary agreement to secure participation from relevant food business sectors

Aggregate change in operating costs of each option, EU (€, %)

NA

Standard trans fats profiling costs / SKU

NA

Food industry attitudes to voluntary measures

Industry sources have indicated they welcomed voluntary measures. However, most have already acted on  industrial trans fats : a voluntary measure would have no significant impact on them.

Interviews with EU level associations

Wider stakeholder attitudes to voluntary measures

Major players in the industry have already acted.

Interviews with EU level associations

Country research

Costs of product testing

The research found some evidence of the costs of testing products for  industrial trans fats content. In Latvia, trans fats content is analysed by the Institute of Food Safety, Animal Health and Environment (BIOR). The cost of analysing one product was quoted in the national impact assessment as 52.25 € (excluding VAT). IMACE (the European Margarine Association) advised ICF that fatty acid profiling for food products costs 50 € to 100 € per profile (with an average price of about 65 €).

Country research

Evidence on product reformulation cycles

In the US, A major producer of processed foods reported that reformulating in less than a year cost $25 million for 187 product lines.

EU level associations indicated a 2 to 3 years reformulation cycle

Country research

Interviews with EU associations

Labelling costs/SKU

The potential costs of relabelling under Option 2 have been estimated using the following assumptions

- Labelling is required for all pre-packed food products;

- Food product labels for 26,894,250 SKUs will need to be changed (based on the RAND Europe estimate used in the impact assessment on general food labelling)

- Labels need to be changed over a 2 year period. Based on the estimates by RAND Europe, 82% of labels would be changed over a 2 year period, suggesting that an enforced change would be required for 18% of food labels;

- The average cost per label changed is assumed to be EUR 1500.

EC (2008) COMMISSION STAFF WORKING DOCUMENT accompanying the Proposal for a REGULATION OF THE EUROPEAN PARLIAMENT AND OF THE COUNCIL on the provision of food information to consumers IMPACT ASSESSMENT REPORT ON GENERAL FOOD LABELLING ISSUES {COM(2008) 40 final}

EC (2015) COMMISSION STAFF WORKING DOCUMENT. Results of the Commission's consultations on 'trans fatty acids in foodstuffs in Europe'

Internal market

Extent of current differences in standards between Member States
Effect of current situation on free circulation of goods and legal certainty

Trends in
 industrial trans fats policy, including current legislative proposals and voluntary initiatives in MS. Effects of this baseline trend on free circulation and legal certainty
Effect of proposed options on free circulation and legal certainty

Potential winners and losers, by Member States and type of business

 

Number of MS with legal limits on  industrial trans fats /partly hydrogenated oils

5 (Hungary, Denmark, Latvia, Austria, Lithuania)

Country research, EC & JRC documentation

Number and % of businesses engaged in voluntary agreements (all businesses/ SMEs)

As detailed in Table 53

Country research, evidence from interviews with EU level associations

Value and % of EU production covered by voluntary agreements

For VAs: as detailed in Table 530

Country research, evidence from interviews with EU level associations

‘Spillover effects’ from national action – e.g. FBOs providing reformulated product to all Member States

Products with high concentration of  industrial trans fats produced in eastern Europe are found in Western Europe in supermarkets

http://bmjopen.bmj.com/content/4/5/e005218

Consumers

Current rates of consumption of  industrial trans fats in different products, MS and societal groups
Attributes of products containing industrial trans fats vs. alternatives

Price of products containing
 industrial trans fats vs alternatives
Effects of each option on:

- Type and choice of available products

- Consumer prices

- Effect on quality and nature of ‘emblematic’ products (e.g. doughnuts, eclairs, chocolate, confectionery)

Number and proportion of products of different types containing different levels of  industrial trans fats

NA

% price differential between products with  industrial trans fats and alternatives

Especially in eastern Europe some producers can have the premium brand without trans fat and the cheap/family pack option with.

Some margarine companies in Canada offered products with a low trans fats level while continuing to sell products with a high level at a lower price.

Ricciuto et al., referenced in Downs, S.M., Thow, A.M. and Leeder, S.R., 2013. The effectiveness of policies for reducing dietary trans fat: a systematic review of the evidence. Bulletin of the World Health Organization, 91(4), pp.262-269h

Product attributes

Some food products and sub-sectors appear to experience greater challenges than others. For example, substitution of oils and fats for frying appears to be achievable relatively easily and with limited effect on quality and taste, but with potential implications for cost. On the other hand, producers of baked goods report greater challenges in finding alternative ingredients and formulations which replicate the attributes of their products.

Public Health Law Center, (2008) Trans fats bans: Policy options for eliminating the use of artificial trans fats in restaurants

Impact on consumer prices of affected products (%)

Available evidence suggests that reductions in  industrial trans fats have had limited effect in increasing consumer prices in the EU to date. For example:

- In Denmark, a recent report suggests that there was no increase in the price levels of the affected products. The product supply to the Danish market also appears not to have been affected. The Danish industry did not complain about financial losses following the industrial trans fats limit.

- IMACE reports that no impact on the price of products has been identified to date in its sector, even though  industrial trans fats have largely been eliminated.

- A Dutch ingredients supplier to the bakery industry indicated that reformulation of bread improvers, bread and pastry mixes required substantial effort and investment , but that, even if fully passed on to consumers, these costs are only likely to have increased prices by 0.04-0.09%.

- A margarine producer in Austria estimated that reformulation of domestic margarines may have increased prices by 1-2%.

Interviews with EU level associations

Country research

Industry competitiveness

Industry structure and types and sizes of firm affected
Extent of intra- and extra-EU trade in products affected

Effects of options on:

- Differences in costs of production and product attributes for different sizes of firm,
different Member States, EU vs non EU firms

- Ability of producers to access export markets

- Degree of competition from imports in domestic market
- Ability of business to innovate

Effects on overall food sector and particular sub-sectors, including innovation effects

Did action on
 industrial trans fats lead to changes in product prices/sales

 

 

 

Number of SMEs/ large businesses involved in manufacture of products with  industrial trans fats

Number of enterprises by food industry sector likely to have products containing  industrial trans fats.

Eurostat
Assumptions in lieu of evidence

% of relevant products traded between Member States/ internationally

NA

Product innovation rates

NA

Research evidence on product price/sales effects following reformulation

Available evidence suggests that reductions in  industrial trans fats have had limited effect in increasing consumer prices in the EU to date. For example:

- In Denmark, a recent report suggests that there was no increase in the price levels of the affected products. The product supply to the Danish market also appears not to have been affected. The Danish industry did not complain about financial losses following the industrial trans fats limit.

- IMACE reports that no impact on the price of products has been identified to date in its sector, even though industrial trans fats have largely been eliminated.

- A Dutch ingredients supplier to the bakery industry indicated that reformulation of bread improvers, bread and pastry mixes required substantial effort and investment by the ingredients supplier, but that, even if fully passed on to consumers, these costs are only likely to have increased prices by 0.04-0.09%.

- A margarine producer in Austria estimated that reformulation of domestic margarines may have increased prices by 1-2%.

Country research & interviews

Simplification and administrative burden

Number of businesses affected by each option
Actions and information needed to comply with each option

Time and associated costs resulting from information requirements

Effect of options on the overall complexity of legislation and regulatory requirements within EU and its Member States

Number of businesses required to understand the rules; number required to provide information

See 'Number of active food businesses within scope of each option'

Eurostat + assumptions on number of affected businesses under each option

Time/effort/other costs incurred per business

No information was found on such time burdens in the literature review or stakeholder interviews, so it is necessary to make an assumption about the likely burden:

Assumed time taken per business to understand the requirements and verify requirements = 1 hour

Average cost per hour is based on Eurostat data for labour costs (including social security contributions and other non-wage labour costs) for manufacturing and accommodation/ food service sectors for each country.

Assumptions + Eurostat data for labour costs

Data compilation / verification and reporting costs incurred by intermediaries

NA

Cost of information provision (€)

NA

Inspection and verification costs incurred by (i) public authorities (ii) via private assurance mechanisms within the food chain

NA

Reporting costs

NA

International trade

Extent of current trade (exports and imports) of products containing industrial trans fats
Expected effects of each option on:

- Competitiveness of, and demand for EU exports

- Competitiveness of, and EU demand for, imports from outside the EU

- International regulatory convergence

NA

Little evidence was found from the literature review to suggest that impacts on trade and competitiveness are likely to be significant, and in general the stakeholders interviewed did not express this as a concern.

Country research

Public administration

Enforcement needs and methods for each policy option
Implications for product monitoring, including technical difficulties of monitoring presence of industrial vs ruminant trans fats

Administrative burden on public authorities (implications for staffing, time and cost of implementation and enforcement activities)

 

 

Cost of establishing the policy

The scale of costs is difficult to estimate precisely. In order to estimate the possible scale of these costs, we assume that:

Each Member State will devote staff time averaging one full time equivalent to establish and promote the policy and to handle enquiries from business, with the exception of Denmark, Latvia, Hungary and Austria for Option 1b;

Staff time is valued using Eurostat labour cost data for professional, scientific and technical activities;

There will be additional costs for overheads, publications, events and website materials. These are assumed to amount to 50% of labour costs.

Assumptions + Eurostat data for labour costs

Cost of consumer information campaigns

Assumption that the labelling option is accompanied by a mass media campaign, focused in those EU Member States where legislation is currently lacking, and designed to reach the quarter of the EU population most vulnerable to the health impacts of  industrial trans fats consumption, and using the per capita cost of USD 2.27 estimated by Sassi et al, a mass media campaign designed to raise awareness of trans fats across the EU would involve a one-off cost in the order of EUR 260 million across the EU28.

Sassi, F. et al. (2009), “Improving Lifestyles, Tackling Obesity: The Health and Economic Impact of Prevention Strategies”, OECD Health Working Papers, No. 48, OECD Publishing, Paris. http://dx.doi.org/10.1787/220087432153

Cost of monitoring and enforcement

Available evidence, though limited, gives some indication of the resources likely to be needed for monitoring and enforcement:

- In Latvia, the Food and Veterinary Service estimated that it will need 86 000 EUR to conduct additional controls and to commission laboratory tests in 2018. This cost was estimated to fall to 63 000 EUR annually from 2019. The figures are based on plans for 1000 inspections and 100 product tests in 2018, representing 13% and 1.3% respectively of the 7800 establishments estimated to be possible using fats containing trans fats.

- In Austria, the cost of examining a sample for trans fatty acids at the AGES is about € 130, depending on the official fee tariff. Costs can vary depending on the matrix. In addition there are about € 6.- for the sample administration and approx. € 30.- for the evaluation.

- In Canada, the director of the Trans Fat Monitoring Programme, estimated that the administrative burden of monitoring arrangements linked to voluntary reformulation measures and labelling requirements had amounted to millions of Canadian dollars annually, and was likely to have greatly exceeded the costs of a regulatory approach. As well as in-kind support provided by the Canadian Heart and Stroke Foundation, the programme had funded three regional laboratories and employed several staff members for three years, including a research scientist, three chemists and a senior policy officer at Health Canada. Other costs include laboratory instruments, and the purchase of market/sales data at a cost of C$ 500,000. Ratnayake et al (2009) argued that the costs of monitoring the voluntary reformulation policy were likely to have exceeded those of enforcing a trans-fat ban, because of the relatively complex measurement of population trans-fat intake required.

- In the US, a paper by Hendry et al (2015) argued that the cost of monitoring and evaluating a labelling policy includes costs associated with product and population-intake analyses, and that a labelling policy is likely to be the most costly to implement effectively.

Country research

Ratnayake WMN, L’Abbe MR, Farnworth S, Dumais L, Gagnon C, Lampi B et al. Trans fatty acids: current contents in Canadian foods and estimated intake levels for the Canadian population. Journal of AOAC International. 2009;92(5):1258–76.

Hendry VL, Almíron-Roig E, Monsivais P, Jebb SA, Benjamin Neelon SE, Griffin SJ et al. (2015) Impact of regulatory interventions to reduce intake of artificial trans–fatty acids: a systematic review.American Journal of Public Health. 2015;105(3):e32-e42.

Compliance rates

Compliance rates vary by country, both in countries with legislation on  industrial trans fats and countries where voluntary agreements are in place. E.g. In the UK voluntary agreement seems to be working while in Poland it had no real impact on  industrial trans fats content in food.

https://www.researchgate.net/publication/254384473_Reformulation_for_healthier_food_a_qualitative_assessment_of_alternative_approaches

SMEs and micro-enterprises

Number of SMEs and micro-enterprises producing food products containing trans fats
Value of trans fat related output among SMEs and micro-enterprises

Burden of investment and operating costs (Q1) on SMEs and micro-enterprises

Ability of SMEs and micro-enterprises to adapt/ absorb costs

Number of SMEs and micro-enterprises (i) directly obligated (ii) indirectly influenced by each option

The EU food and drink industry includes more than 280,000 SMEs which generate almost 50% of the food and drink industry turnover and value added and provide two thirds of the employment of the sector.

Number of SMEs and micro-enterprises producing food products containing trans fats

NA

Value of trans fat related output among SMEs and micro-enterprises (€, % of total output)

NA

Ability of SMEs and micro-enterprises to adapt/ absorb costs

The evidence indicates that SMEs are likely to incur significant costs in order to comply with the measures. The views of stakeholders are that most SMEs will address the requirements by switching ingredients, relying on suppliers of oils and fats. This applies notably to food service SMEs: in some countries such as Austria or Denmark alternative oils have been purchased for frying that effectively enable compliance with the 2% limit on  industrial trans fats content. However, the evidence also indicates that challenges will be greater in the food manufacturing industry, where SMEs are likely to encounter difficulties when reformulating their products. While business associations, mainly informed by the experience of very large manufacturers, may provide supporting information to SMEs, it is not certain that SMEs will be able to profit from the solutions developed by larger players in order to achieve compliance.

Validation consultation

Social Impact

Judgement criteria

Judgement criteria

Consumer health

Current health impacts of industrial trans fats intake
Effect of each option on:

Extent of reduction of trans fat intake

Health benefits arising from these reductions

Consumption of alternatives and their health effects

Health of different social groups

Health inequalities     

Number of incidences of cardiovascular disease in EU, by MS and by social group

In 2015, there were just under 11.3 million new cases of CVD in Europe and 6.1 million new cases of CVD in the EU.
In 2015, more than 85 million people in Europe were living with CVD and almost 49 million people were living with CVD in the EU.

http://www.ehnheart.org/cvd-statistics.html [pag 55]

% increase in risk of coronary heart disease for consumers with >2%trans fats intake

The consumption of trans fats increases the risk of heart disease more than any other macronutrient
compared on a per-calorie basis. The risk of dying from heart disease is higher when 2% of the

daily energy intake is consumed as trans fats instead of an exchange of carbohydrates, saturated fatty

acids, cis monounsaturated fatty acids and cis polyunsaturated or other types of fatty acids,

respectively if the exchanged amounts of calories remain the same (evidence available quantifies

the
increase in risk between 20-32%).
Note that a more recent study from the same author (second source) shows an inverse relationship. However the study population is already sick individuals hence results should not be directly used for general population.

https://www.nature.com/ejcn/journal/v63/n2s/full/1602973a.html
https://academic.oup.com/eurheartj/article/37/13/1079/2398446/Natural-trans-fat-dairy-fat-partially-hydrogenated

http://www.sciencedirect.com/science/article/pii/S1567568806000262 [paying article]

Overall intake of industrial trans fats as % of calorific intake

Intake by country and age group used in the JRC study

http://ajcn.nutrition.org/content/104/5/1218/suppl/DCSupplemental

Number and % of consumers with >2% calorific intake from trans fats

Intake by country and age group used in the JRC study

http://ajcn.nutrition.org/content/104/5/1218/suppl/DCSupplemental

Scale of risk reduction delivered by reformulation (e.g. whether reformulation typically elevates saturated fat content)

Product reformulation that involves the removal of trans fats from food may simply lead to higher levels of saturated fatty acid, thereby limiting the public health effect of trans fats policies. However, our findings indicate that reformulation resulted in the removal of trans fats with little change in saturated fatty acid content in the majority of products; bakery products were an exception. Moreover, the fatty acid profile of many reformulated products improved while the total fat content remained constant. The resulting health benefits may exceed those associated with simply removing trans fats from food.

http://www.who.int/bulletin/volumes/91/4/12-111468/en/

Expected reduction in incidences of coronary heart disease resulting from each option (total and by social group)

Estimated through the help of the JRC model. The model does not allow to distinguish impacts by different socio-economics groups.

http://ajcn.nutrition.org/content/104/5/1218.full

own calculations based on new assumptions

Costs associated with coronary heart disease

Direct healthcare costs: costs related to the use of health resources (i.e., primary care costs, outpatient costs, emergency costs, and medication used during the hospitalization). The costs are based on the European Cardiovascular Disease Statistics 2012.

Indirect healthcare costs: costs related to the disease, namely loss of productivity and informal care. The costs are based on the European Cardiovascular Disease Statistics 2012.

Nichols et al. European Cardiovascular Disease Statistics 2012. Brussels (Belgium): European Heart Network, European Society of Cardiology; 2012

http://ajcn.nutrition.org/content/104/5/1218.full

Consumer information

Current availability of information on industrial trans fats content of food, health impacts of industrial trans fats
Current consumer awareness of industrial trans fats and health impacts

Effects of each option on:

Provision of consumer information

Levels of consumer awareness

Evidence on labelling changing purchase / consumption choices 

% of relevant products giving information on trans fats content

NA

% of consumers aware of trans fats and health impacts

The majority of Europeans do not know about trans fats, industrial trans fats or ruminant trans fats and partially hydrogenated or fully hydrogenated oils. Also, only a small fraction of people seems to be concerned about trans fats intake

https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-report_en.pdf

Country research

Environmental Impacts, Member State Plans and Activities, Other Significant Impacts

Judgement criteria

Judgement criteria

Environmental impacts

Changes in food content and production methods resulting from shift away from trans fats
Change in palm oil use resulting from different options - Change in use of other ingredients

Environmental impact of changes in palm oil use - Environmental impacts of other ingredients

Environmental impacts of production process (energy use, climate impacts)

substitutes for partly hydrogenated oils

Evidence from Denmark, after the introduction of the trans-fat ban, indicates that saturated fats (including palm oil) were the main replacement in 66% of products.

Similarly, in Canada, the President of the Baking Association, Canada, advised in interview that in the baking industry, pre 2002, most oils used were vegetable oils but now they have primarily been replaced with palm fats and oils. Most of the trans fat-free alternatives being used by the baking industry come from palm oil.

Consultees in the food industry, such as FEDIOL and IMACE, stressed that their members had already taken action to eliminate industrial trans fats, using palm oil and other alternatives, and that they did not expect a major increase in demand for palm oil as a result of future policy.

http://www.euro.who.int/__data/assets/pdf_file/0010/288442/Eliminating-trans-fats-in-Europe-A-policy-brief.pdf?ua=1

Interviews with EU level associations

Country research

Environmental impacts of palm oil

Consultees in the food industry argued that the sector is taking action to source ingredients sustainably, and that reformulation using palm oil need not have negative impacts on the environment. For example, the percentage of certified sustainable palm oil used by FEDIOL members has continued to increase over time, reaching 60% at the end of 2016, albeit with a slower growth rate compared to the previous year. 7.2 million tons of palm oil were imported into the EU in 2016, of which about 50% were refined by FEDIOL companies.

Similarly, IMACE stressed that the margarines and spreads industry is committed to using sustainable palm oil, such that increased use of palm oil should not lead to deforestation. AIBI, CAOBISCO, FEDIMA, FEDIOL and IMACE are members of the European Sustainable Palm Oil Advocacy Group which aims to support the uptake of sustainable palm oil in Europe and to communicate scientific and objective facts and figures on environmental, nutritional and functional aspects.

FEDIOL (2017). Palm Oil Monitoring.

FEDIOL (2017) EU vegetable oils’ sector works towards meeting the 2020 commitments on sustainable palm oil. Press Release. www.fediol.eu

Member State plans and activities

Legislative proposals and initiatives underway in Member States

 

Number of MS considering legislation on industrial trans fats

Romania and Slovenia have notified to the Commission draft national legal measures setting a limit to industrial trans fats content. During the validation consultation most EU MS were cited by at least one consultee as likely to act in the absence of EU action. At the same time, consultees indicated in their majority that they did not expect the industrial trans fats problem to be resolved in case there was no EU action.

Validation consultation

Number of MS considering voluntary agreements/ other initiatives

Contributors to the validation consultation mentioned Denmark, Poland, Lithuania, Italy, Sweden and Germany.

Validation consultation

Other significant impacts

Any other impacts judged to be significant in screening exercise

 NA



Table 61 Profile of the existing voluntary agreements on iTFAs

NACE Rev. 2 classification

# businesses firms

Sector structure

EU rep. association

Characteristics of the membership

Progress made

Opportunity for change through EU V.A.

Manufacture of oils and fats

7,856

Relatively concentrated sector

FEDIOL

Membership through national organisations in Belgium, Denmark, Finland, France, Germany, Hungary, Italy, the Netherlands, Poland, Spain and the UK.

Including corporate members, reach extends to: Austria, the Czech Republic, Greece, Portugal, Romania and Sweden.

This covers 80% of the sector

No presence in BG, HR, CY, EE, IE, LV, LT, LU, MT, SK, SI.

Number of members are SMEs.  Estimated approx. 7-8% of total value/turnover of the sector.

Members have been supporting industry initiatives to reduce trans fats in vegetable oils and fats. The average trans fats content in vegetable oils and fat formulations has decreased over the last 15 years from 5.3 to 1% on fat basis, which corresponds to a relative decrease of 81%.

Very low

Gains have been already achieved.

Manufacture of margarine and similar edible fats

103

Relatively concentrated sector

IMACE

Membership through national organisations in Austria, Denmark, Greece and Italy, as well as Norway and Switzerland.

Including corporate members, reach extends to: Belgium, the Netherlands and Germany.

No presence in BG, HR, CY, CZ, EE, FI, FR, HU, IE, LV, LT, LU, MT, PL, PT, RO, SK, SI, ES, SE, UK.

75% of IMACE members are SMEs.

Voluntary code for several years and reports that its members have already largely taken action to phase out TFAs in their products. Activities have achieved good results with average trans fats content of 1.2% achieved for consumer products and less than 2% for B2B products in 2016. 

Very low

Gains have already been achieved

Manufacture of bread; manufacture of fresh pastry goods and cakes4

139,199

Fragmented sector

FoodDrinkEurope

FDE has members across the whole EU.

Number of members are SMEs. For the industry as a whole in Europe, SMEs make up 99.1% of enterprises and about half of the sector’s turnover (49.5%).

The large majority of members are below the threshold of 2% of the total fat content.

Low

Gains have been achieved where possible. Reach is limited due to mixed nature of the membership

Manufacture of rusks and biscuits; manufacture of preserved pastry goods and cakes4

6,401

Fragmented sector, some big players and many SMEs

CAOBISCO

CAOBISCO does not cover LV, LT, EE, CZ, BG, EL, MT, CY, SE, DK, NL, HR, FI, LU, RO, SK. The country federations already participating in its voluntary initiative are Belgium, France, Germany, Italy, Spain, the UK and Poland.

Around 99% SMEs.

The organisation has set up a voluntary commitment to reduce TFAs in products below 2% of the total fat content. Most members have already achieved the target and those who have not are on track to achieve it in 2017.

Some national federations have not signed up.

Low

Some gains achieved already, but possibly to improve by including remaining members

Manufacture of cocoa, chocolate and sugar confectionery4

6,246

Fragmented sector, some big players and many SMEs

CAOBISCO

CAOBISCO does not cover LV, LT, EE, CZ, BG, EL, MT, CY, SE, DK, NL, HR, FI, LU, RO, SK. The country federations already participating in its voluntary initiative are Belgium, France, Germany, Italy, Spain, the UK and Poland.

Around 99% SMEs.

The organisation has set up a voluntary commitment to reduce TFAs in products below 2% of the total fat content. Most members have already achieved the target and those who have not are on track to achieve it in 2017.

Some national federations have not signed up.

Low

Some gains achieved already, but possibly to improve by including remaining members

Manufacture of condiments and seasonings

1,941

Relatively concentrated sector

FoodDrinkEurope

FDE has members across the whole EU.

Number of members are SMEs. For the industry as a whole in Europe, SMEs make up 99.1% of enterprises and about half of the sector’s turnover (49.5%).

The majority of members are below the threshold of 2% of the total fat content.

Low

Gains have been achieved where possible. Reach is limited due to mixed nature of the membership

Processing and preserving of potatoes

780

Fragmented sector, some big players and many SMEs

FoodDrinkEurope

FDE has members across the whole EU.

Number of members are SMEs. For the industry as a whole in Europe, SMEs make up 99.1% of enterprises and about half of the sector’s turnover (49.5%).

The majority of members are below the threshold of 2% of the total fat content.

Low

Gains have been achieved where possible. Reach is limited due to mixed nature of the membership

Restaurants and mobile food service activities

915,668

Highly fragmented sector: 91%  micro-enterprises, 99.5% SMEs

HOTREC

Food Service Europe

HOTREC has members across the whole EU.

SMEs are strongly represented in HOTREC membership through its member associations. For the sector as a whole, 91% are micro-enterprises and 99.5% are SMEs.

Few isolated national initiatives. FIPE (Italian member) co-signed an agreement with the Italian food industry and the national authorities concerning the reduction of industrial trans fats contents in food for young people. It exclusively concerns categories of food from the processed/manufacturing industry (e.g. breakfast cereals, biscuits, etc.)

DEHOGA (German member of HOTREC) engaged in an initiative with the Federal Ministry of Agriculture and Food that aims to reduce TFAs in food.

Low

Industry is highly fragmented, and does not perceive i industrial trans fats has an issue it is its responsibility to solve; dependent on suppliers

ANNEX 31: Validation consultation by ICF, survey instrument








 









































(1) “Evidence from a number of countries indicates that the intake of TFA in the EU has decreased considerably over recent years, owing to reformulation of food products, e.g. fat spreads, sweet bakery products and fast food. More recent reported intakes in some EU Member States are close to 1 to 2 E% (EFSA, 2004). For example, in the UK the average intake of TFA has been halved to less than 1 E% (SACN, 2007). In France, intake data from 4079 individuals 3 to 79 years of age collected with 7-day food diaries and calculated with tables of TFA content of foods from 2008 show that TFA intakes have decreased by 40 % and are, on average, 1 E% in adults (1.4 E% at the 95th percentile), including 0.6 % for TFA from ruminant sources and 0.4 % for TFA from other sources (AFSSA, 2009). Average intakes of TFA in Denmark, Finland, Norway and Sweden have decreased to around 0.5 to 0.6 E% (Johansson et al., 2006; Lyhne et al., 2005; Männistö et al., 2003; Becker et al., 2005). “ EFSA opinion of the scientific panel on dietetic products, nutrition and allergies on a request from the Commission related to the presence of trans fatty acids in foods and the effects on human health of the consumption of trans fatty acids (Request EFSA-Q-2003-022) adopted on 8 July 2004.
(2)

See: http://www.dehoga-bundesverband.de/branchenthemen/reduktion-von-transfetten/ ; http://www.dehoga-bundesverband.de/fileadmin/Startseite/05_Themen/Transfette/05_TFA_PL_Frittieroele_final.pdf ; http://www.dehoga-bundesverband.de/fileadmin/Startseite/05_Themen/Transfette/TFA_Leitlinie_Siedeoele.pdf

(3)      See for example Stender S. et al., Tracing artificial trans fat in popular foods in Europe: a market basket investigation. BMJ Open 2014.
Top

ANNEX 32: ICF Country profiles 

Austria

Policy status

Existing

Proposed/ considered

Legislation

X

Voluntary measures

Labelling

Consumer information

Description of existing measure(s)

Type of measure

Legislation

Description of measure

(if legislation paste exact text of legislation)

Ministerial Decree No. 267 of 20 August 2009 on trans fatty acids content in food (267. Verordnung des Bundesministers für Gesundheit über den Gehalt an trans-Fettsäuren in Lebensmitteln)

Scope of measure

The decree prohibits the production or marketing of foodstuffs with a trans fatty acid content exceeding 2 g per 100 g of total fat content.

The limit value can be exceeded in the case of processed foodstuffs made from several ingredients, provided the total fat content of the foodstuff is less than 20% and the trans fatty acid content does not exceed 4 g per 100 g of total fat, or provided the total fat content is less than 3% and the trans fatty acid content does not exceed 10g per 100g of total fat. This limit is also applicable to imported food. 1

The underlying motivation for the introduction of the measure is indicated as a public health measure following a precautionary approach (protecting the most vulnerable such as socially disadvantaged groups more exposed to trans fatty acids in their diet). 2

FBOs covered

N/A

Derogations

(e.g. low fat products, local products)

This regulation does not apply to milk and milk products which have naturally occurring trans fats content. 3

Share of SMEs involved

(in case of voluntary measures)

N/A

Length and characteristics of transition period

(1) Fats and oils as well as other foodstuffs which do not comply with the Ordinance, but which have hitherto been allowed, may be placed on the market until stocks are reduced.

(2) Foodstuffs may be produced and placed on the market from or with fats and oils in accordance with paragraph 2 of the Ordinance, a maximum of twelve months after the entry into force of the Regulation.

Arrangements for measure enforcement and compliance monitoring

According to an interview with Austrian Food Industry representatives, companies did not have to report. The regulation applied and businesses had to comply with the provisions of the regulation. The Food Inspectorate carried out regular studies (by sampling) from the beginning. There have been no major infringements. The number of samples was later reduced.

Rate of compliance/ participation and favouring conditions

(in case of voluntary measures)

No information found.

Tests used to assess trans fats content

From October to November 2014, 71 products were examined for their trans fat content in supermarkets, retail stores and in various restaurants. 4 The results of the tests were assessed according to the British traffic light model:

·Green light was only available for products containing less than three grams of fat per 100 grams or a maximum of 1.5 grams of saturated fats per 100 grams.

·The yellow light flashes at grease contents of three to 20 grams per 100 grams or a maximum of five grams of saturated fats.

·All values above have a warning red.


Main results:

·All samples tested stayed within the limits defined by the trans fatty acid regulation;

·The fear that the reduction in trans fatty acids is at the expense of an increase in the content of - also undesirable - saturated fatty acids has not been confirmed.

·The content of saturated fatty acids has largely remained the same as in 2007. Therefore, the content of many product groups (in particular pastries, doughs, snacks, biscuits) is still to be assessed as high.

·Two-thirds of the examined snacks, such as popcorn and biscuits, half of baked goods and three-quarters of the doughs were classified as "red" due to the total fat content.

·Of the 71 investigated products, on average, one in three would be labeled "red."

According to the Austrian Ministry of Health, until 2012 a test specific to trans fats was used, but since then this test has been integrated into a general test for fatty acid methyl esters. The current test works as follows:

The fatty acids (extracted directly from oil or from a fat-containing foodstuff), which are present in the form of triglycerides, are subjected to an alkaline transesterification to extract fatty acid methyl esters from the fat. The obtained fatty acid methyl esters are identified by gas chromatography through a flame ionization detector (FID). The individual trans fatty acids are summed and this content is compared to the overall fat content of the sample.

Steps taken to raise consumer awareness

According to the Austrian Ministry of Health, since the implementation of the legislation it has become increasingly unlikely that consumers are exceeding the daily limit for trans fats. Due to this, they have not felt it necessary to take steps toward raising consumer awareness.

Guidance provided to affected businesses

According to the Austrian Ministry of Health, they provided no specific guidance to businesses. They have a section of their website dedicated to information on trans fats.

Effectiveness of the measure

The legal limit imposed in Austria was considered effective in achieving the desired reduction in food  trans fats levels and hence population  trans fats exposure. 5

Market control actions (2011 and 2013) found that no product contained more than 2% trans fats (based on total energy intake), although bakery products, popcorn or sweet spreads were investigated. In doughnuts less than 0.5 g/100 g or in Danish or puff pastry less than 0.2 g/100 g  trans fats were found.

Data from national food consumption surveys in Austria suggest that there were no differences in populationsaturated fat intake before and after the introduction of the legal limit in 2009. 6

The Austrian Ministry of Health tested a variety of foods between 2008 and 2013 for trans fat contents. An evaluation of the results is forthcoming.

Describe (if any) other measures that are currently being considered

No information found.

TFAs in foods and diets

TFAs content in food

(by product, if available please distinguish by trans fats source – iTFA and rTFA, andpartly hydrogenated oil)

- Before the TFA-Regulation trans fats content in certain problematic food groups was as follows: 7  

- Doughnuts: 2.36 g TFA/100 g

- Puff pastry spread: 0.56 g TFA/100 g

- Danish pastry spread: 0.44 g TFA/100 g

- French fries: 0.18 g TFA/100 g

42% of the samples showed a trans fats content over 2%, more than 10% were even higher than 10% of total energy.

[Information provided did not specify whether g TFA/100 g refers to g total fat or g product]

Variation in TFAs content in food after implementation of measure

See above:

Results of market control actions (2011 and 2013) proved that no product contained more than 2% trans fats (based on total energy intake), including bakery products, popcorn and sweet spreads among others. In doughnuts less than 0.5 g/100 g or in Danish or puff pastry less than 0.2 g/100 g trans fats were found.

Data from national food consumption surveys in Austria suggest however that there were no differences in populationsaturated fat intake before and after the introduction of the legal limit in 2009. 8  

Future projections of TFAs content in food (e.g. a major FBO pledged to reduce trans fats content in own products)

No information found.

TFAs intake

(if available please report data by trans fats source – iTFA and rTFA, age and socio-economic group, andpartly hydrogenated oil contribution)

- Average trans fats intake 0.97± 1.3 g/day

- High trans fats intake (P95) between 2-11.5 g/day

[year of analysis: 2008]

Variation in TFAs intake after implementation of measure

TFA exposure was reduced to under the legal limit but data from national food consumption surveys in Austria suggest that there were no differences in populationsaturated fat intake before and after the introduction of the legal limit in 2009. 9  

Information on national consumer awareness of TFAs issues (e.g. terminology, impact of food choice)

More than half (55%) of Austrians cannot provide an estimate on which fatty acids are healthy or unhealthy in their diet, as evidenced by a survey conducted by the Forsa Institute on behalf of Unilever. There is considerable educational demand with regard to unhealthy fatty acids, such as saturated or trans fatty acids. In addition, the health effect of poly-unsaturated fatty acids is underestimated by respondents. According to the study, the average Austrian consumes about 6.2 kg of fat per year - and far more unhealthy than healthy fatty acids.

67% of the respondents have heard of healthy poly-unsaturated fatty acids, but only 40% can assess their effects correctly. The respondents were most aware of Omega-3 fatty acids and these are regarded as healthy by 84% of respondents. Less known, however, are omega-6 fatty acids, with only 46% of respondents aware of their existence. Nevertheless, 57% of the respondents attributed a positive effect to these fatty acids. About half of the Austrians surveyed, on the other hand, know of trans fatty acids and over half (54%) already know about their harmful effects. 10

Measure impacts

Business responses and costs

Number of business that reformulated their products

(if possible differentiate by large and small companies)

No information found.

Evidence of FBO sector facing specific challenges

Some smaller industries expressed concerns during the discussion phase of the regulation. The soup industry, for example, where soup cubes might have a fairly low fat content overall, had problems with the reduction. It was later decided to construct the regulation to differentiate requirements depending on fat content: for certain products with a lower total fat content, higher trans fat contents are allowed.

For frying fats, it is technologically relatively easy to replace fats with palm oil or vegetable oils (sunflower oil ("high oleic sunflower") and rapeseed oil). These fats are solid or liquid. There were some problems with this transition as frying fats need to be as tasteless and as odourless as possible. In Austria, these fats are of particular importance due to the tradition of baking goods.

For the production of margarine the process was relatively complicated because crystallization of fats is complex.

In the commercial (B2B) sector, it was more difficult. The measures taken were similar: partially hydrogenated fats had to be replaced with alternative fats (palm oil and palm oil derivatives, rapeseed oil, sunflower oil). This was associated with high technological effort. Derivatives of palm oil do not crystallize as well, therefore more complex machines with a smaller flow rate are needed. From the perspective of raw materials, the switch did not necessarily result in more costs because palm oil costs either the same or is cheaper. The additional cost was in the processing.

Today, palm oil is no longer desired by all consumer groups. Between 2005-09, this was not yet an obstacle. Costs would have been higher had palm oil not been an option.

In the commercial margarine sector it was a relatively long process (4-5 years of development) until the new margarines were available.

In the household sector (B2C) it was somewhat easier: good taste, good nutritional values are the most important consumer factors. The development phase took around 2-3 years.

The margarine market in Austria is not very heterogeneous (Senna and Unilever dominate). Both companies implemented this at the same speed and all measures were implemented before the regulation was introduced. This had a positive effect on competition within Austria because all companies had the same basic conditions. The same conditions of competition also apply to importers.

For which oils/fats was there a reduction in use and with what were they replaced?

The reduction in trans fatty acids at the expense of an increase in the content of saturated fatty acids (such as palm oil) has not been confirmed. 11

Costs of changes in products and processes

(if possible differentiate by type of cost and include figures)

According to one Austrian margarine producer, it was "cost-neutral for raw materials if you can use palm oil. If not then the costs are significantly higher.

Personnel expenditure for the development can only be estimated: In the 4-5 years which were necessary for the development of alternatives we had two persons (8-10 man years). Further processing also has development costs, but these are estimated as less.

The greatest effort was certainly in the commercial margarine sector but also in the household margarine sector.

Investment expenditure: Machines had 20-30% lower performance with the alternative fats. To restore the machines' performance to their old condition required additional investment. That is because partly hydrogenated fats crystallize more rapidly than palm oil and palm oil derivatives."

For the small bakery interviewed, costs were minimal. The bakery worked with their supplier to find appropriate solutions, and the costs for this were carried by the supplier. For the reformulation of recipes themselves, only a few man hours were needed.

Cost of understanding / learning the measure for FBOs

Big margarine and oil producers anticipated the transition following the Danish regulation. This led to voluntary measures so that these producers were already compliant by the time the regulation came into effect. According to the margarine producer interviewed, these companies then bore the brunt of the burden, as they then produced products that were compliant and could be used by their commercial customers.

Consumer prices and choice

Evidence of changes in the price of reformulated products

According to one Austrian margarine producer, there was probably a slight price increase (somewhere around 8-12%). No statistics are available. Consumer prices are always dependent on the broader market situation. The price effect would have been influenced by the replacement oil used (palm, rapeseed, sunflower).

According to the small bakery interviewed, there was a slight price increase at the time of the switch but this would have happened with or without the change in trans fats.

Evidence of price differences between products with iTFAs and alternatives

Not applicable.

Evidence of changes in the range, quality or taste of products available

No information found.

Evidence of changes in TFAs consumption

No information found.

Effect on consumer information and awareness

Following the regulation, there has been less negative press around margarines and their bad reputation regarding trans fats has disappeared.

Health effects

Evidence of benefits on consumer health

(if possible differentiate by age and socio-economic group)

According to the Austrian Ministry of Health, a study is currently being undertaken by WHO Europe to address this question. The results of this study are not yet available.

Evidence of change in saturated fats intake

No information found.

Competition, innovation and trade

Effect on competition in the domestic market

There were no disadvantages on the Austrian market as all businesses as well as importers had to comply with the regulations.

Changes in trade of affected goods

One interviewee indicated that there was competitive disadvantage in Central and Western Europe at first, due to the higher costs and quality issues, but this disadvantage quickly dissipated. In Eastern Europe, where cheaper margarines are still on the market, however, Austrian producers are still in a poorer position. This disadvantage has been experienced for a ong time.

Effect on innovation among suppliers (i.e. reformulation and/or changes in production processes)

No information found.

Administrative burdens

Number of businesses required to provide information

No information found.

Evidence of economic burden associated with compliance for FBOs

(obtain cost data if possible)

According to an interview with a margarine producer, alternative products were provided by large companies to the small ones, so there were no major problems. The upstream suppliers bore the brunt of the regulation more than businesses further down the supply chain. The one year transition period was considered to be relatively short.

The total cost to test a sample for TFAs through the Austrian Food Safety Authority is around €170. Local authorities also provide these tests with varying costs.

Evidence of authorities' effort to enforce/monitor measure

(obtain cost data if possible)

No information found.

Environmental impacts

Evidence of any environmental costs or benefits

No information found.

Evidence of increase in demand for palm oil / other ingredients

Initially, mostly palm oil and palm oil derivatives were used. Since 2015, however, there has been a movement against the use of palm oil (due to the impact of palm oil production on deforestation). This was noticeable too for companies that exported their products to other countries. There was a strong response in Italy, while in other countries it was more differentiated. In 2009 the plant origin of oils did not have to be listed in ingredients, but this is now obligatory and thus there is better consumer information with regard to the use of palm oil in food products. If that had already been the case in 2009, the cost would have increased greatly.

There are alternatives to palm oil on the market, such as cocoa butter and shea oil. However, the markets for these fats are much smaller and the prices are difficult to calculate (the variances in demand-driven prices are very large). A good alternative, according to one margarine producer, would be to use fully hydrogenated oils that do not contain trans fats. The industry is working on such products (replacing palm oil with fully hydrogenated oils from sunflower and rapeseed oil). The capacities are currently low but can increase quickly. This would be a real alternative, as there would be no trans fats and it would be acceptable from a technical point of view.

Effects on deforestation resulting from variation in demand of ingredients

(e.g. palm oil, soy)

No information found.

Additional references

https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf



Canada

Policy status

Existing

Proposed/ considered

Legislation

X

X

Voluntary measures

X

Labelling

X

Consumer information

X

Description of existing measure(s)

Type of measure

Legislation/voluntary/labelling/consumer information

Description of measure

(if legislation paste exact text of legislation)

Labelling measures (mandatory and voluntary): 

Legislation – mandatory nutrition labelling. Introduced in December 2002, effective December 2005, Canada was the first country in the world to introduce mandatory labelling of TFAs. The measure requires declaration of TFAs on most pre-packaged foods. 12 Trans fats are a core piece of nutritional information that is required to be declared in a Nutrition Facts Table (NFT): they must be declared under the “fat” declaration, in the same section as the “saturated fatty acid” declaration. The trans value is expressed in grams and the sum of saturated and trans is expressed as a percentage of the daily value. 13 However, products containing less than 0.2g of trans fat per serving are regarded as trans fat free for labelling purposes, and labels do not distinguish between naturally occurring and artificially produced trans fats. 14 Three nutrient content claims can be made on a label or in an advert for a food with trans fats: free of trans fatty acids; reduced in trans fatty acids; or lower in trans fatty acids, with strict conditions regarding when they can be used. The only health claim that can be made is that low trans fat diets may reduce the risk of heart disease (although exact wording is prescribed in the legislation). 15  

Voluntary guidelines developed by the Canadian Restaurant and Foodservices Association in consultation with Health Canada in 2006 to provide nutrition information i.e. trans fats content, through in-store brochures, pamphlets, posters and websites.

In February 2007 Health Canada updated and released revised “Canada’s Food Guide” which, for the first time, contains explicit recommendations to limit trans fats andsaturated fat intakes and encourages consumers to read the Nutrition Facts table on food labels. 16

Reformulation measures (voluntary):

In 2004, the Parliament of Canada passed a motion “to enact regulation, or if necessary present legislation that effectively eliminates processed trans fats, by limiting the processed trans fat content of any food product sold in Canada to the lowest level possible”. Motion included development of a multi-stakeholder task force (the Trans Fat Task Force - TFTF), which, in their 2006 report to the Minister of Health (TRANSforming the Food Supply) recommended limiting the total amount of TFAs in foods through regulation. More specifically: limiting the trans fats content of vegetable oils and soft, spreadable margarines to 2% of the total fat content; and for all other foods to 5% of total fat content (incl. ingredients sold to restaurants). The recommendations were in line with nutrition labelling to help level the playing field for all players in the food industry. On June 20th 2007, the Minister of Health announced that Health Canada would adopt the TFTF’s recommendations and industry was given a 2 year window to reduce trans fats to recommended levels, encouraging substitution of TFAs with unsaturated fats during reformulation. If significant progress had not been made, the department would develop regulations to enforce the limits. Progress towards recommendations was tracked by the Trans Fat Monitoring Programme. 17

One interviewee from the National Competent Authority stressed the importance of defining the approach as a “structured voluntary approach”. This approach must have the following components (which – it was argued - were key reasons for the success of this approach in Canada): targets must be published; the approach must have defined timelines, a clear mechanisms for public consultation and public disclosure of all data, a plan for monitoring; and the option of including a regulatory approach if the voluntary measure wasn’t successful.

State/Province level legislation:

Ontario. On September 1, 2008 the  Healthy Food for Healthy Schools Act  and  Trans Fat Regulation  came into effect. The regulation requires schools to drop trans fat from food and beverages sold on their premises. This includes some baked goods, packaged snack food and deep fried food, among others. 18

According to the NCA interviewee, while the trans fat task force was deliberating the introduction of the voluntary national-level measure, a number of jurisdictions had already introduced measures to reduce or ban trans fats e.g. Alberta banned trans fats in French fries. These sub-national initiatives acted as a bottom-up level driver for government to introduce a national-level measure. In particular, because the labelling measure introduced in 2002 did not cover trans fats in the restaurant and food services industry, restaurant and food service establishments wanted something nationwide and standardised. Most local level measures also related to restaurants because this was the easiest sector for local governments to develop regulations for. Standardisation of these different measures was one of the strongest driving forces for the national level initiative.

VP, Canadian Restaurant and Foodservices Association: Fully supportive of the new trans fat limits: “The restaurant industry is not usually an industry that comes before government and makes requests for regulations or government interventions per se; however, trans fat has evolved, and in a unique way, and in this case, given what has evolved in the past number of years, I want it to be on record that the restaurant industry has in fact made requests of the Government of Canada to establish a national regulatory framework so as to ensure consistency with respect to reductions in trans fat across Canada.” 19  

Scope of measure

Labelling regulation (to include the Nutrition Facts Table) is mandatory for most pre-packaged foods.

 

Voluntary reformulation measure covers most pre-packaged foods and restaurant foods.

FBOs covered

Labelling regulation: all producers of pre-packaged foods.

Voluntary reformulation: all producers of pre-packaged food and owners of restaurants and food service establishments.

Derogations

(e.g. low fat products, local products)

Labelling regulation (Nutrition Fact Tables): Foods sold at restaurants and food service establishments fall outside of regulations (the NCA interviewee estimated this equated to around a quarter of foods consumed). However a number of restaurants committed to implementing industry-led voluntary guidelines (approximately 40% of all chain establishments). 20  

The following pre-packaged products are always exempt from displaying a Nutrition Facts table (NFT): one-bite confectionary sold individually e.g. small individually wrapped mints; a pre-packaged individual portion of food solely intended to be served by a restaurant or other commercial enterprise with meals or snacks e.g. creamers served with coffee, and milk, partly skimmed milk, skimmed milk, goat's milk, partly skimmed goat's milk, skimmed goat's milk, (naming the flavour) milk, (naming the flavour) partly skimmed milk, (naming the flavour) skim milk or cream sold in refillable glass container.

The following foods are specifically prohibited from displaying a NFT: formulated liquid diets, infant formula, foods containing infant formula, meal replacements, nutritional supplements and foods represented for use in very low energy diets. These products have their own nutrition labelling requirements that are different from those of the NFT. 21

The NCA interviewee also mentioned that artisanal products were excluded (but these products made up an almost negligible proportion of the food supply).

Share of SMEs involved

(in case of voluntary measures)

For the voluntary reformulation measure, according to the NCA interviewee, SMEs were less engaged than larger companies. However the Canadian Department of Agriculture has a mandate to support SMEs with reformulation and the National Sciences and Engineering Research Council also supported different sectors/categories that faced particular problems. Furthermore, the interviewee said that SMEs were largely “followers” rather than “leaders”. Most of the research and development and recipe testing etc for reformulation was done by the large multi-national companies and SMEs would then copy the format of these reformulated products, rather than spending money on their own research and development i.e. it was not as costly to SMEs as may be assumed.

See rate of compliance section below for more info.

Length and characteristics of transition period

For voluntary reformulation measure, companies had two years to make changes or a regulation would be introduced. However, the Trans Fat task Force specified that: “Extended phase-in periods [may] be specified for certain applications (e.g. baking) and for small and medium-sized firms, recognizing that in most cases the transition could be made within two years of the date of entry into force of the final regulations” 22 (so a four year transition period in total).

For the mandatory labelling legislation, larger companies had to comply with the legislation by December 2005, but smaller enterprises had a grace period of two years. 23

Arrangements for measure enforcement and compliance monitoring

Labelling measure: the Food Inspection Association of Canada has a broad mandate to inspect food and enforce regulations. For labelling they used a risk-based approach to determine priority inspection and analysis plans (NCA interview). This was always a point of contention as it was seen as too minimal i.e. based on complaints or spot checks rather than comprehensive inspection and analysis.

Voluntary reformulation measures: the Trans Fat Monitoring Programme (TFMP), established by Health Canada in 2007, was a two-year programme analysing the trans fat content of over 1100 foods known to contribute high levels of trans fat to the Canadian diet. 24 This programme was clearly a monitoring initiative rather than inspection (NCA interviewee). Product labels and food content were analysed in certified labs by Health Canada and results were sent to companies. Companies then had one month to review the data and provide a correction/ more up-to-date data. This process worked well (NCA interviewee). The monitoring programme was conducted twice a year for over three years. Health Canada also conducted several teleconferences with the food industry to ensure everything was compliant and offered training to businesses at no cost (three or four day course) to teach industry how to analyse their own products if they wanted to.

Rate of compliance/ participation and favouring conditions

(in case of voluntary measures)

Voluntary reformulation: Despite the presence of the trans fat monitoring programme, the rate of compliance was not extensively monitored. The NCA interviewee said that the number of businesses achieving compliance wasn’t identified, however the supplemental table S1 found in Arcand et al’s (2014) paper identify all of the businesses that disclosed their trans fat levels and those that did not. 25  

During the monitoring programme, Health Canada looked at all the leading fast food restaurants (at least 50) and identified the foods with trans fats that took up the most space on shelves in three different cities. For some food categories this equated to 90% of the market share but their aim was to select 70-80% of the market share per category. The large majority were found to be compliant (see trans fats content section below). However, due to the research methodology, some categories may have been under-represented, meaning the compliance rate in these categories is less clear:

Smaller manufacturers (although arguably most small manufacturers did not make products with different ingredient profiles to the larger manufacturers);

In the second monitoring stage, the trans fat monitoring programme used the same sampling plan as the sodium monitoring programme which picked up some additional food products that were not detected in the first monitoring phase. These additional products were equivalent to about 7% of the food supply.

Once products were identified as falling below the threshold level of trans fat content, they were no longer monitored by the programme i.e. food categories changed during each round of monitoring.

Other evidence:

Results from the TFMP suggest that while a number of popular fast-food and family restaurant chains in Canada have been successful in decreasing trans fats levels, there are still establishments that continue to offer menu items high in TFAs. 26

Tests used to assess trans fats content

Labelling: The CFIA recommends using the Official Methods of Analysis of AOACR International, Official Method 996.06 to determine the trans fatty acid content of foods. 27

Trans fat monitoring programme for voluntary measure: (NCA interviewee). Health Canada’s Chief Chemist was leading the testing for this programme. The interviewee was not sure of all the tests used but mentioned capillary GC testing.

Concern regarding monitoring of thepartly hydrogenated oil ban:

A representative of the baking industry mentioned that a key problem with lab testing is that no test is able to distinguish between animal fats and iTFAs. This is problematic as the new legislation excludes animal fats.

Steps taken to raise consumer awareness

The media and other stakeholders have played an important role in raising consumer awareness by: helping to increase consumer awareness about TFA; highlight the actions taken by industry to remove trans fats from products and highlighted worst performers from the trans fat monitoring programme. 28  

A representative of the baking industry mentioned that the labelling measure itself played a vital role in raising consumer awareness and put pressure on industry to reformulate as consumers wanted trans fat-free products. They argued that consumer awareness and pressure alone was the key driver in reducing trans fats, not any regulation by Governments. They think that had consumers not been so aware, the voluntary measure would have been less successful. Consumer awareness also came from a lot of prior published research from health professionals on the health effects of trans fats which was extensively spread by the media.

Guidance provided to affected businesses

Guidance on labelling was provided on the Canadian Government website. 29  

Guidance on voluntary trans fat reduction: The Canadian Restaurant and Foodservices Industry developed a “how-to” guide which provided advice and counsel to members of the industry on how to actually go about reducing trans fats in their menu items and offerings.

Effectiveness of the measure

“Data published over the last decade suggest that initiatives to decrease the trans fat consumption of Canadians have been highly effective.” 30

See below sections for quantitative data.

Describe (if any) other measures that are currently being considered

Proposed legislation for summer 2018: Health Canada intends to implement a prohibition on the use ofpartly hydrogenated oils in foods by addingpartly hydrogenated oils to Part 1 of the List of Contaminants and other Adulterating Substances in Foods. This would mean that any food containingpartly hydrogenated oils would be declared adulterated and its sale in Canada prohibited in accordance with section 4 of the Food and Drugs Act. 31  

Regulation of the proposed measure: Food and drug regulations fall under criminal law so the Food Inspection Agency could take businesses to court after several breaches to regulation (NCA interview).

Reasons for the introduction of the legislation:

Further reductions in trans fats are required. The WHO recommends that trans fat intake (from both naturally occurring and industrially produced sources) should be less than 1% of total energy intake. Despite significant progress (as highlighted in the sections on intake and content below), there are still certain food categories that continue to have large proportions of foods not meeting the trans fat targets and some subpopulations are still at higher risk. 32 In addition, the last official results from the trans fat monitoring programme (in 2008) suggest that average trans fat content was still above the WHO 1% recommendation (1.42% of total energy intake).

Cost savings. A study undertaken by Gray, Malla and Perlich (2005) which examined the economic impacts of a ban on industrial trans fats, suggests that a full ban would create health benefits in an order of magnitude larger than the increase in food cost associated with the ban. 33 They estimated that several billion dollars in benefits would be forgone if trans fats reduction is encouraged through labelling alone. The present value of health cost savings of a ban to Canadians would exceed $19 billion. Oilseed growers, whose price is set in the global market, would be largely unaffected by a ban.

Prevent slippage. The NCA interviewee mentioned that although most products are now trans fat-free in Canada, the regulation allows for a “mop-up” of those products that still have not reformulated. They argued that processes and products are now available in Canada for all products to be trans fat-free so products that still contain artificial trans fats are the result of laziness/lack of legislative pressure. They also mentioned it is a good way to prevent slippage. For example, after the trans fat monitoring programme her team found that some shortenings that reduced trans fat levels went back to their original levels.

Stakeholder views on the proposed legislation:

“Health Canada sees the value of a regulatory approach, which may be especially beneficial in controlling the level of trans fat in oils used by the food service industry.” 34  

CEO, Heart and Stroke Foundation of Canada: progress in small and medium-sized food service operators has been slower and “frankly, we are not getting at the suppliers to that sector, and without regulation, we don’t believe we can.” 35 “The other issue that came up in the trans fat task force was that regulations would send a clear signal to suppliers to create healthier alternatives.

Canadian Nutrition Society: “a prohibition ofpartly hydrogenated oils would align Canada’s regulation with that of several countries in Europe and the United States who have already established this policy.” 36

Views of industry:

Baking Association of Canada. From the outset, BAC supported an orderly replacement of trans fats in the food supply to alternatives that are low in trans fats and saturated fats. 37 However, in an interview with a representative from the association, it was felt that the legislation is not required as the voluntary measure already led to a reduction of trans fats to within the WHO limits across almost bakery products. They said that the baking industry has been trans fat-free for years.

Learnings for the EU. The NCA interviewee mentioned that at the time Canada’s voluntary measure was introduced, legislation was decided against for political reasons i.e. it was a political decision to limit the amount of legislation introduced. However, they argued that the introduction of legislation with a three year time-lag could probably have been just as effective: it would have been more cost-effective and less labour-intensive (see administrative costs section below). They stressed that any legislative measure needs to be introduced with a measure alongside to ensure that the food supply doesn’t become over-burdened with saturated fats. In the case of Canada, they were fortunate to have had good saturated fat-free replacement oils available at a good price.

TFAs in foods and diets

TFAs content in food

(by product, if available please distinguish by trans fats source – iTFA and rTFA, andpartly hydrogenated oil)

Detailed fat analysis of over 200 locally and nationally available foods indicated that trans fats levels in some foods reached as high as 50-56% trans fats as % of total fat. Also large variation in trans fats levels in some food categories.

Variation in TFAs content in food after implementation of measure

Overall comments from the NCA interview and the baking industry interview indicated that the large majority of products in Canada are now trans fat-free as a result of the labelling and reformulation measures.

TFAs have been reduced or eliminated in certain foods – bread products and salad dressings are now trans fats free. 38

Labelling:

One study looking specifically at the change in fat composition of a survey of all margarines sold in Toronto between 2002 and 2006 when the new Canadian labelling regulations came into effect found that average amounts of trans fatty acids (TFA) and mono unsuaturated fats decreased, while average amounts of poly unsuaturated fats (poly-unsaturated fatty acids) increased significantly from 2002 to 2006. 39 The proportion of margarines with less than 0·2 g TFA/10 g serving rose significantly from 31 % in 2002 to 69 % in 2006. However, trans fats reductions appeared to be restricted to higher-priced margarines.

Another reference noted that “the availability of trans fat information on the Nutrition Facts table helped draw the attention of consumers and public health professionals to the presence of TFAs in pre-packaged foods, which resulted in a significant reduction of the trans fat content of these foods.” 40

 Voluntary reformulation (and labelling):

A study by Arcand et al. (2014) , updating results from the trans fat monitoring programme, found that 95% of packaged foods and 96% of restaurant foods, overall, had trans fats amounts that fell within recommended limits. When examining top contributors of industrial TFAs to the Canadian diet, there was a striking improvement in the proportion of foods meeting the recommended limits, increasing from 75% in 2005-2009 to 97% in 2010-2011, particularly in the following packaged foods: croissants (25% to 100%), pies (36% to 98%), cakes (43% to 90%), and garlic spreads (33% to 100%). Most restaurant categories assessed by the TFMP had 100% of foods meeting trans fats limits. Supplementary tables provide breakdowns of fat content by product. 41

However, some categories had a large proportion that still exceeded trans fats limits: dairy-free cheeses (100%), frosting (72.0%), lard and shortening (66.7%), coffee whiteners (66.7%), and restaurant-prepared biscuits and scones (47.4%) 42 . Furthermore, among foods that exceed the trans fats limits, many contain very high amounts of TFAs (e.g., coffee whiteners, doughnuts, dairy-free cheese, refrigerated dough). Many of these were in food categories that contained a large proportion of products that meet the trans fats limits, which suggests that technologies clearly exist for reformulation.

In general, pre-packaged foods have seen the greatest reduction in trans fats, with restaurants and the food service sector having less success as it is more difficult to control the level of trans fat in the final products. 43

Future projections of TFAs content in food (e.g. a major FBO pledged to reduce trans fats content in own products)

Following the TFMP which ended in 2008/9, a cost benefit analysis (CBA) was commissioned by Health Canada to estimate the potential costs and benefits of further efforts to reach the target of trans fat intake being no more than 1% of overall energy. Interviews conducted as part of the CBA indicated that some other companies were ready to introduce new products that were meeting the trans fat limits in a matter of weeks or by the end of 2009, suggesting that there were further reductions in trans fat content and intake after 2009. 44 Thus it is possible that there were further reductions since the 1.42% were calculated, however decreases are likely to be lower given that most companies have already implemented measures to reduce trans fats content. The authors of the CBA estimate average trans fat intake in 2009 to be 1.35% (but 1.49% in children). Continuing with that assumption, in 2012 the level should be 1.12% of energy and 1.27% of energy in children. However the CBA, after interviews with food industry stakeholders about their intent to make further reductions, assumed that there would be no further decrease in trans fat intakes in Canada beyond 2009 levels. 

TFAs intake

(if available please report data by trans fats source – iTFA and rTFA, age and socio-economic group, andpartly hydrogenated oil contribution)

Researchers estimated that Canadians had one of the highest intakes of TFAs in the world in the mid-1990s due to widespread use of hydrogenated canola and soybean oils (8.4g/day in 1995). 45 The move to such widespread use of hydrogenated oils came in the 1970s when they were viewed as a healthier alternative to saturated fats. Trans fat intake was estimated to be 3.7% of total energy. 46  

Foods contributing to the high trans fat intake included crackers, margarines, shortening, donuts, cookies, pie shells, breaded chicken, cake mixes and cakes, French fries, sauces and gravies.

Information from nutrition surveys indicates that 22% of the average trans fat intake of Canadian adults (and as much as 31% in the case of males aged 19 to 30 years) is provided by foods consumed away from home, often in fast food restaurants and other food service environments. 47

Variation by sub-groups:

Exposure in children tends to be higher than exposure in adults . 48

Canadian Inuit populations – over the last 5 decades or so, Inuit populations have transitioned from a traditional, marine diet to one which incorporates more processed foods, typical of a western diets. Foods containing industrially produced trans fats are also beneficial in these communities because of their storability at room temperature and a longer shelf life. A dietary survey in 2004-05 in Inuit populations from Nunavik Canada and Greenland found that despite consuming similar percentages of store-bought foods, the Nunavik Inuit were three times higher than those of the Greenland Inuit (as measured by the fatty acid composition of erythrocyte membranepartly hydrogenated oilspholipids). Nunavik youth also had significantly higher erythrocyte trans fats levels than their elders (0.67% vs 0.39%). 49  

The NCA interviewee said that extensive data was gathered through the 1990s, particularly the data collected through a breast milk monitoring programme, and this supported the introduction of the labelling measure in 2002. At this point, so much data had been collected there was not much objection to the introduction of the legislation because the health impacts were clear. The only objections from business were regarding how much time they had for labelling and reformulation.

Variation in TFAs intake after implementation of measure

TFA intakes have been decreasing – 8.4g/day in the mid-1990s versus 4.9g/day in 2005 (2% of total energy). 50 A 2007 assessment by Health Canada estimated that trans fat intakes for all Canadians (aged one year and older) has decreased to 1.42% of total energy (equivalent to 3.4 grams per day).

The usual intake distributions of trans fat (as % of energy) were also calculated for certain age-sex groups (see Annex 2 for breakdown table). The 95th percentiles for all age-sex groups have dropped from approximately 3.00% in 2004 to 2.12% in 2008. The 95th percentile for males 51 years and older is the highest at 2.30% of overall energy. The 5th percentile for both boys and girls 9-18 years of age are reported to be 1.22% and 1.06% of energy. This indicates that almost all children and teenagers exceed the trans fat limit of 1% energy intake recommended by the WHO. 51

Subsequent study of Canadian nursing mothers showed decline in trans fat concentrations in human milk samples between 2009 and 2011, suggesting further declines since the 2007 assessment (at least in this population). 52  

However, in 2011 a risk assessment conducted by Health Canada showed that some sub-populations were at risk of higher trans fat intake including: children and teens, Canadians living in remote areas, price-sensitive consumers (i.e. lower income groups) and those who regularly consumed foods remaining high in trans fats. 53

Similarly, a 2012 study looking at the amount of trans fatty acids in Canadian adults between 2004 and 2010 found that, relative to 2004, total trans fats levels were significantly lower in 2005-2009, however not in 2010, suggesting that young Canadians may still remain vulnerable. 54  

Information on national consumer awareness of TFAs issues (e.g. terminology, impact of food choice)

45% of Canadians in 1995 claimed that they have heard or that they understand the term “trans fat” compared to 79% in 2005. 55

Measure impacts

Business responses and costs

Number of business that reformulated their products

(if possible differentiate by large and small companies)

Most of the top fast food and restaurant chains in Canada have been successful in reducing trans fats from menu items that were previously high in trans fats (e.g. French fries, chicken products, fish products and pizzas): 56  

§78% of restaurants and fast food chains had French fries that met the 5% trans fats limit by 2007-08, 59% had chicken products, 100% had pizzas and 85% had fish products.

In response to the Minister of Health’s recent commitment to introduce tougher measures to eliminate industrially produced trans fats in the food supply, Health Canada launched a Call for Data in 2016 to collect information on the current use ofpartly hydrogenated oils in the food supply. Data was submitted by seven manufacturers, two fats and oils processors, one restaurant, two industry associations and one academic. Many respondents indicated that they were moving away frompartly hydrogenated oil use, however the response rate was low.

President and CEO of the Vegetable Oil Industry of Canada: “Overall, our industry has developed formulations to allow bakeries, margarine companies, the food service sector, and virtually all food companies to provide products with no trans fats and, in most cases, lower saturated fat. To give you some details, today virtually every national fast-food outlet is using a trans-fat-free frying oil. Trans-fat-free, low-unsaturated-fat margarines now have the largest market share in Canada. Virtually all the large bakeries in Canada are using trans-fat-free formulations. Many of the facilities within our industry that produce hydrogenated oil, which is the source of trans fat, have either been closed or converted.

The acreage dedicated to producing high-stability oil that does not create trans fat has substantially increased. High-oleic canola now comprises 900,000 tonnes of Canada's canola production, and is expected to increase to 3.75 million tonnes, or 25% of production, by 2015. We estimate that more than 80% of the market is now meeting the task force trans fat limits of 2% for liquid oils and 5% for all other foods.” 57

Evidence of FBO sector facing specific challenges

The interviewee from the baking industry in Canada identified the following challenges, noting that overall the challenges of moving to trans fat-free foods were substantial:

Finding a hard fat for some products e.g. those that use laminated doughs. Butter is not usually used as it is expensive and is often hard to procure. Palm fats were identified as the best substitute in most cases.

Industry suppliers were making inaccurate claims about the functionality of new products meaning that they were not effective when used in bakery products. Functionality is particularly important for icings and laminate doughs.

SME costs were not particularly out of line with larger producers; the main problem for SMEs was finding the in-house technical resources and time to do the reformulation.

Butter is still being used as a trans fat alternative but this is problematic because it is expensive and causes problems for vegans/individuals of particular religious backgrounds.

VP of the Canadian Restaurant and Foodservices Association: “The challenges during the transition period were significant for food service” including:

Supply challenges: challenges in getting adequate online supply of oils from national chain operators. “I want to be clear that it was not easy. Our member companies put a lot of resources, both human and fiscal, into their efforts to reduce trans fats.”

“The food service industry is and has been uniquely challenged because of the nature of Canada's food regulatory regime; that is, the jurisdictional purview for enforcement and compliance around these kinds of issues is such that restaurants really have been singled out as policemen, if you will, to police the entire Canadian food supply with respect to trans fat. This has posed significant challenges for our members across the country. In response we have come back to the federal government. We have made our case, in this instance, to have a consistent national regulatory framework so that we can ensure that our members are operating in an environment in which they have a level playing field with their direct competitors along the food value chain.” 58

VP, Food and Consumer Products of Canada: (represents the food manufacturing industry in Canada): “Despite significant investment by industry, government, and academics, challenges still exist to find the appropriate substitute ingredients for some products and to ensure that reformulated and new products meet consumers' expectations for taste, texture, and quality.”

For which oils/fats was there a reduction in use and with what were they replaced?

In 2013 a total of just over one million (1,080,885) metric tonnes of vegetable oils were consumed in food in Canada. Of that total, approximately 20 per cent was soybean oil. The remaining 50 per cent comprised canola (42 per cent) and high oleic low linoleic canola (HOLL – at eight per cent). The residual was imported oils and blends from 11 other plants such as palm, olive, coconut and corn.

Canola, soy and flax oils – otherwise classified as “omega 3” oils – comprise 62 per cent of the oils in Canadian foods. Corn, cotton and sunflower (“omega 6” oils) make up five per cent, and HOLL, olive and peanut oils (“omega 9” oils) comprise another 12 per cent. Paska noted HOLL canola oil has a growing presence in Canadian food. In 2010, HOLL canola represented only four per cent of the oil used in Canadian food; by 2013, that had increased to 11.5 per cent. HOLL oil has gained popularity because it replaces hydrogenated vegetable oils that were once more commonplace in baked goods. 59

The NCA interviewee mentioned that the Canadian Department of Agriculture funded a lot of research on canola oil to develop non trans fat alternatives. Once these variations were available, they were widely available to all businesses. At first they were more expensive but after a couple of years the price reduced considerably.

The interviewee from the baking industry mentioned that in the baking industry, pre 2002, most oils used were vegetable oils but now they have primarily been replaced with palm fats and oils.

More information in the health benefits section below on saturated fat content.

Costs of changes in products and processes

(if possible differentiate by type of cost and include figures)

The NCA interviewee was not aware of any studies that assessed the actual costs that occurred as a result of the labelling or reformulation measures. Data reported here are therefore qualitative or based on prediction/estimation.

In reference to thepartly hydrogenated oil ban recommendation: CEO, Heart and Stroke Foundation of Canada: “There is no evidence that regulations are cost prohibitive, that implementation costs to government are high. There is no evidence that regulations are cost prohibitive for industry.” 60

A study undertaken by Gray, Malla and Perlich (2005) 61 which examined the economic impacts of a ban on industrial trans fats estimated that in all cases the total food costs of reducing trans fats would be less than C$ 1 billion. 62 Oilseed growers, whose price is set in the global market, would largely be unaffected by a ban. Generally, the increase in cost would occur at the crusher and food processor sectors through the cost of product reformulation and the substitution of higher cost High Oleic Canola and soybean oils. These costs would ultimately be passed on to consumers, resulting in very modest increases in consumer expenditure. The overall result would be a large economic gain over a range of plausible scenarios.

The following best estimates (most realistic) of the additional cost or cost that firms would incur if different options were implemented were calculated:

Voluntary labelling system: the testing/labelling cost is C$66 million while the product reformulation cost is C$295 million, which together account for C$361 million in expenditures. The CHD health benefit estimate is C$7,357 million.

Mandatory labelling: The testing/labelling cost, for testing and labelling of all products, is equal to C$187 million. The mandatory labelling stimulates an increased product reformulation cost of C$471 million. Thus, the total estimated industry cost of mandatory labelling is equal to C$658 million. However, the CHD health benefits are estimated at C$12.57 billion.

Ban on foods with greater than 2% TFA: the testing/labelling cost is equal to C$187 million and the product reformulation cost is C$754 million, accounting for a total industry cost of $941 million. Under this scenario the CHD health benefits increase to C$19.54 billion.

Specifically within the baking sector, the baking industry interviewee said that the average cost per SKU (Stock Keeping Unit) for updating labels is C$3000. For the general food sector, they said that reformulation costs (calculated by the US Department of Agriculture) were estimated to be USD 11,500 to 100,000 per formula, with a mid-range of USD 50,000. This includes a ten month development cycle and an eight month market cycle.

Cost of understanding/learning the measure for FBOs

No information found.

Consumer prices and choice

Evidence of changes in the price of reformulated products

One of the top factors influencing food buying practices is cost. It was reported that margarines sold on the Canadian market that are lower insaturated fat, trans fats and the sum of saturated fat+TFA cost significantly more than margarine with higher levels of these fats. 63 More recent data is consistent with these findings. In 2002, margarines that were labelled as “trans fat free” cost $4.62 per kg and those that were not trans-fat free cost $3.05 per kg 64 . In comparison, in 2006 those that were trans-fat free cost $5.10 per kg and those that were not trans-fat free cost $3.55 per kg. 65 Similar research shows that nutritionally improved products tend to be higher in price.

The baking industry interviewee also mentioned that initially there was a higher cost for trans fat alternatives and this was a challenge for industry.

Evidence of price differences between products with iTFAs and alternatives

The baking industry interviewee mentioned that when fat and oil suppliers first introduced trans fat-free products, they were also producing the trans fat versions. Splitting productions costs meant that initially the costs of trans fat-free products were high. However now they are predominantly producing only trans fat-free products so the cost is going down.

Evidence of changes in the range, quality or taste of products available

No information found.

Evidence of changes in TFAs consumption

No information found.

Effect on consumer information and awareness

No information found.

Health effects

Evidence of benefits on consumer health

(if possible differentiate by age and socio-economic group)

Heart disease has remained the second most likely cause of death for Canadians after malignant neoplasms. 66 However there has been an overall decrease in the number of deaths from heart diseases between 2000 (55,070 deaths) and 2013 (49,891 deaths).

According to the CBA commissioned by Health Canada that factored in the reduced risk of CHD along with annual growth rate of heart attack cases in Canada, the further reduction of average trans fat intake to 1% of energy is conservatively estimated to prevent an average of 12,354 heart attack cases in Canada over 2010-2029. 67

A study undertaken by Gray, Malla and Perlich (2005) 68 which examined the economic impacts of a ban on industrial trans fats estimated that a voluntary labelling initiative alone would result in a present value of health cost savings exceeding C$7 billion. Mandatory labeling would increase the saving to over C$12 billion. With a ban present value of health cost savings Canadians would exceed C$19 billion. Meanwhile, the extra CHD health benefits of the mandatory labelling system are equal to C$5.21 billion.

Evidence of change in saturated fats intake

In many cases the reduction in trans fats has been achieved by finding healthier alternatives and not increasing level of saturated fat. 69 Results of the TFMP from 2005-2009 showed that industry has made progress in reducing trans fats levels in their products while not increasing saturated fat content, with evidence that average saturated fat intakes of Canadians have remained constant since 2004 (an average of 25g/day on average for all Canadians aged one year and above). 70 It suggests that many food manufacturers are replacing TFAs with mono- and poly-unsaturated fats and not with saturated fats. This was confirmed through scientific assessment of the full fatty acid profile of the foods that were included for analysis in the TFMP.

A second study 71 found that, among the major grocery and restaurant food products in Canada that might contain TFA, in 2005-07, nearly half (42%) contained over 5% trans fats on initial assessment. However most were discontinued or underwent reformulation (nearly three quarters had undergone reformulation with an average reduction to less than 2%). After this reformulation only one product had unchanged content of cis unsaturated fats; all others had increased cis unsaturated fats, most with absolute increase of over 10% of fatty acids and half with absolute increase of over 20%. The total fat content was generally unchanged. 

However, a 2014 study 72 found that saturated fat amounts were significantly higher (P , 0.05) among some foods with the lowest TFAs, such as cookies, brownies and squares, cakes with pudding/mousse, dessert toppings, and lard and shortening.

Particularly within the baking industry, almost all products replaced high trans fat ingredients with those high in saturated fats as these were the only alternatives.

Competition, innovation and trade

Effect on competition in the domestic market

No information found.

Changes in trade of affected goods

The baking industry interviewee indicated that there is an opportunity for the Canadian industry to take trans fat-free products to the US market-place because they are ahead of the US in terms of reformulation. They said that if the EU were to move towards trans fat-free products then it could create a new market for Canada.

Effect on innovation among suppliers (i.e. reformulation and/or changes in production processes)

No information found.

Administrative burdens

Number of businesses required to provide information

No information found.

Evidence of economic burden associated with compliance for FBOs

(obtain cost data if possible)

The NCA interviewee mentioned that reformulation was a lot of work for companies, but that most of the costs were spent years ago as businesses have been aware for years that trans fats would need to be removed from food. Reformulation started even before the labelling legislation came into force. They said that most of the costs fell with the oil and fat suppliers as they were the start of the supply chain.

When it came to regulation for labelling, the enforcement letters were usually sent to the oil and fat producers, and restaurants and food services relied on suppliers to provide updated products and labelling, rather than paying to monitor trans fat levels themselves.

Evidence of authorities' effort to enforce/monitor measure

(obtain cost data if possible)

Voluntary reformulation measure: The NCA interviewee was not sure of actual costs, but from their knowledge of the Trans Fat Monitoring Programme, they were able to confirm that the administrative burden was high (i.e. in the millions of Canadian dollars), and much higher than for a regulatory approach. A lot of in-kind support was provided by the Canadian Heart and Stroke Foundation. It also funded three regional laboratories and employed several staff members for three years e.g. a research scientist, three chemists and a senior policy officer at Health Canada (the latter liaised with industry). Each employee had an average salary of C$100k a year plus benefits. Other costs include laboratory instruments and C$500k to buy market/sales data to support the analysis.

Labelling measure: In comparison to the voluntary reformulation, the Canadian Food Inspection Agency did not spend that much money on monitoring nutrition labelling.

Environmental impacts

Evidence of any environmental costs or benefits

Most of the trans fat-free alternatives being used by the baking industry come from palm oil.

Evidence of increase in demand for palm oil / other ingredients

No information found.

Effects on deforestation resulting from variation in demand of ingredients

(e.g. palm oil, soy)

No information found.

Additional references

Estimated trans fat intake as a percentage of energy

Source: https://docs.google.com/viewerng/viewer?url=https://cdn.intechopen.com/pdfs/42954.pdf&time=c3344365842b3bf1453a3bbb133492b0

Usual distributions of estimated trans fat intakes as % of energy

Source: https://docs.google.com/viewerng/viewer?url=https://cdn.intechopen.com/pdfs/42954.pdf&time=c3344365842b3bf1453a3bbb133492b0



Denmark

Policy status

Existing

Proposed/ considered

Legislation

X

Voluntary measures

Labelling

Consumer information

Description of existing measure(s)

Type of measure

Legislation

Description of measure

 

Source: Ministry of Food, Agriculture and Fisheries of Denmark and the National Food Institute (2014). Danish data on trans fatty acids in foods. Annex 1.

An amendment to the Order 160 above (Order 1427/2015, see below) deletes section 4 to harmonise the Order with the EU regulation on nutrition and health claims made on foods (Order 1924/2006).

Source: The Danish Veterinary and Food Administration

Scope of measure

The scope of the legislation has been to reduce the amount of industrial trans fats in food to maximum 2 g per 100 g in eatable oils and fats.

FBOs covered

All

Derogations

(e.g. low fat products, local products)

The legislation does not cover R-TFA.

Share of SMEs involved

(in case of voluntary measures)

N/A

Length and characteristics of transition period

The legislation was passed in March 2003, and was fully implemented on 1 January 2004. For transition period, see Order 160 No. of 11 March 2003 Chapter 1, section 3, subsection 2: from 1 June 2003 to 1 January 2004, certain products were allowed to contain 5 g industrial trans fats per 100 g oil or fat.

The Danish industry to a large extent complied with the regulation when this was implemented. The industry had been working towards a reduction of IP/TFA already from the 1990s. 73

Arrangements for measure enforcement and compliance monitoring

The Danish Veterinary and Food Administration (Fødevarestyrelsen) and the National Food Institute at the Technical University of Denmark conducted surveys of the content of trans fats in selected foods in 2002-3, 2004-5, 2006-7, 2010 and 2012-13.

Rate of compliance/ participation and favouring conditions

(in case of voluntary measures)

N/A

Tests used to assess trans fats content

The amount of industrial trans fats in foods that contain mixed fats, e.g. milk fat and partially hydrogenated soybean oil, can be estimated by:

·Estimating the amount of milk fat present in the food based on its butyric acid content (C4:0), butyric acid occurs uniquely in milk fat;

·Using this to estimate the amount of naturally occurring trans fats in the food based on an assumption about the fraction of milk fat that is TFA;

·Subtracting the R-TFA figure form the total amount of trans fats to derive an estimate of the industrial trans fats content. 74

Steps taken to raise consumer awareness

Following a Lancet article in 1993 and scientific documentation on the effects of a high intake of TFA, there was a lot of media coverage in Denmark about the negative effects of TFA. This, for example, meant that the sale of margarine dropped already from 1993 onwards. When the industrial trans fats limit was introduced, the margarine producers largely already complied with the limit. 75

From a Danish perspective, it is considered more efficient that the industry limits limit the level of industrial trans fats from products in the market, instead of the costumers having to understand trans fats labels on products. 76 At the time around the introduction of the Order, there was a lot of debate about industrial trans fats. This means that the consumers also demanded healthier products. 77 A lot of attention is given to health issues in Denmark; including on the negative effects from e.g. TFA. This could raise the general consumer awareness around trans fats (personal view).

Guidance provided to affected businesses

There has been an ongoing dialogue between the industry, the Danish Veterinary and Food Administration (Fødevarestyrelsen) and the National Food Institute at the Technical University of Denmark to support the implementation of the Order. Before the implementation of the Order dialogue had been established to encourage a reduction of the industrial trans fats level in products on the Danish market. It was mainly just after the introduction of the Order that businesses received guidance and dispensations if they needed more time to adjust to the Order. 78 Denmark has a long term tradition of stakeholder dialogue, which could have had an impact on the process and dialogues around trans fats (personal view).

Every third year risk-based controls are being conducted to analyse the level of industrial trans fats in products which are considered to be at risk of having too high a level of industrial trans fats. If the results of the analyses show that the limit of industrial trans fats has been exceeded, the business will receive further guidance to avoid sale/production of a product which transgresses the limit. Controls may also be conducted on the background of suspicions for specific products. 79

The branch federations in the Confederation of Danish Industry had already been in dialogue with the Industry before the implementation of the Order, so that the industry largely lived up to the Order when this was introduced. 80

When working to reduce the industrial trans fats content, the businesses could enter into dialogue with the suppliers of oils to ensure import of oils with a lower industrial trans fats content. Prior to the introduction of the industrial trans fats limit, the Danish industry was concerned about the potential costs of this. However, retrospectively seen, the process of limiting the industrial trans fats has not been as difficult as expected. 81

Effectiveness of the measure

The effect of the Danish regulation is clear from the results. Most of the products complied with the regulation already in 2004/5. In the following years (2006/7, 2010 and 2012/13) only occasional transgressions have been found. The surveys demonstrate a continual decrease in the number of products that do not comply with the Danish maximum limit for industrial trans fats. 82

The limitation of industrial trans fats in Denmark has taken place over a number of years, and began before the introduction of the Order 160. In this way the Order supported an ongoing process to limit intake of industrial trans fats. Today the health risks of industrial trans fats are no longer debated; the industry and authorities agree on and cooperate in the reduction of industrial trans fats from products on the Danish market. 83

The Order may have had only a limited effect as the industry was largely compliant with the Order when it was introduced. The Order may mainly have had an effect on imported products and businesses that were not organised via the Confederation of Danish Industry. 84

It is difficult to estimate the actual effectiveness of the measure, as the real process towards a reduction of industrial trans fats did not seem to develop in connection with the Order (which was introduced quite late in relation to the process of starting to reduce the trans fats content).

Describe (if any) other measures that are currently being considered

The Order has had the desired effects, and the process of introducing the Order has been considered easy and cost-efficient. Apart from ongoing monitoring of the level of industrial trans fats, no further measures are currently being considered. 85 Although the Order could be said to have had the desired effects, the actual direct impacts is difficult to estimate. It is more useful to look at the overall process, of which the Order was one component.

TFAs in foods and diets

TFAs content in food

(by product, if available please distinguish by trans fats source – iTFA and rTFA, andpartly hydrogenated oil)

Test results of industrial trans fats content in selected foods: 86

Puff pastry:

2 tests of puff pastry. No content of IP_TFA of more than 2 g per 100 g fat was found.

Confectionery and caramels:

Tests of caramel, candy, chocolate-coated marshmallow, and filled chocolate. No content of industrial trans fats of more than 2 g per 100 g fat was found.

Croutons:

2 tests of croutons. No content of industrial trans fats of more than 2 g per 100 g fat was found.

Cakes:

16 tests of cakes. No content of industrial trans fats of more than 2 g per 100 g fat was found.

Cookies:

25 tests of cookies. 2 tests transgressed the Danish limit of 2 % industrial trans fats. Both products were imported.

Chips and frozen potatoes:

10 tests of chips and frozen potatoes. No content of industrial trans fats of more than 2 g per 100 g fat was found. 1 test was from a fast food restaurant.

Biscuits:

16 tests of biscuits. 2 tests transgressed the Danish limit of 2 % industrial trans fats. Both products were imported.

Crackers (knækbrød):

2 tests of crackers. No content of industrial trans fats of more than 2 g per 100 g fat was found.

Fast food:

Test of a fried fish filet and a marinated fried chicken for a burger. No content of industrial trans fats of more than 2 g per 100 g fat was found.

Margarine:

7 tests of margarine. No content of industrial trans fats of more than 2 g per 100 g fat was found.

Fat for microwave popcorn:

4 tests of fat from bags with popcorn for the microwave. No content of industrial trans fats of more than 2 g per 100 g fat was found. As the industrial trans fats limit was not transgressed, the popcorn have not been microwaved and tested again.

Waffles:

5 tests of waffles. Tests transgressed the Danish limit 2 % industrial trans fats. Both products were of foreign origin.

Declarations:

56 of the tests have declared the content of fat and fatty acids. Test results have been compared to the declarations. In 11 tests the declarations do not match with the test results (corresponding to 20 % of the tests); incl. 2 declarations of fat, 4 declarations of saturated fat, and 5 declarations of both fat and saturated fat.

These tests have been conducted between October 2012 and June 2013. The total number of tests was 95, and 47 tests were on imported products. 7 tests indicated a higher level of industrial trans fats than 2 g per 100 g fat (between 2.7 and 22.7 g industrial trans fats per 100 g fat). 4 of these 7 products had declared milk components. In one of the 4 products the trans fats could come solely from milk fat, but in the 3 remaining products there is a level of industrial trans fats which is higher than 2 g per 100 g fat. Hence, with the correction for the content of milk fat, the results found more than 2 g industrial trans fats per 100 g fat in 6 of the tests (i.e. 6 % of the tests). All these 6 tests are imported products consisting of cookies, biscuits or waffles.

Variation in TFAs content in food after implementation of measure

The test results above can be compared to test results from earlier years: 87

§2002-3: 25 % of the tests transgressed the Danish limit of 2 g industrial trans fats per 100 g fat.

§2004-5: 11 % (17 products) of the tests transgressed the Danish limit of 2 g industrial trans fats per 100 g fat. 12 of the 17 tests which transgressed the trans fats limit were foreign products.

§2006-7: 9 % (4 products) of the tests transgressed the Danish limit of 2 g industrial trans fats per 100 g fat. All 4 products were foreign.

§2010: 7 % (7 products) of the tests transgressed the Danish limit of 2 g industrial trans fats per 100 g fat. 6 of the 7 products were foreign.

In conclusion, the content of industrial trans fats in 2012-3 is the lowest since the first survey in 2002-3, as only 6 % of the products contain more than the industrial trans fats limit. All of the 6 products have been selected from ethnical shops, and the products are imported.

Future projections of TFAs content in food (e.g. a major FBO pledged to reduce trans fats content in own products)

The survey shows that the small businesses/importers might need extra guidance about the Order 160. 88

TFAs intake

(if available please report data by trans fats source – iTFA and rTFA, age and socio-economic group, andpartly hydrogenated oil contribution)

Despite relative economic equality in Denmark, there is an enduring social inequality when it comes’ to citizens’ health; i.e. there is a correlation between people’s social position in society and their health 89 .

Research also suggests that the Danish limit of industrial trans fats has decreased the mortality caused by cardiovascular diseases by 14.2 deaths per 100,000 people annually; 90 meaning that the Danish limit on industrial trans fats saves around 700 people a year in Denmark. 91

It has also been suggested that the industrial trans fats limit has decreased the health inequality in Denmark with regard to coronary heart disease. Before the introduction of the limit – during the 1990s – health conscious people already largely avoided foods with industrial trans fats. By contrast, people who did not spend time on reading declarations on foods in general had a higher intake of industrial trans fats. The limit has presumably helped this latter group of people. As doctor and researcher Steen Stender has pointed out: ‘… it is the lowest social groups which have the highest rate of coronary heart diseases, so one of the advantages is that the ban protects those who need the protection the most.’ 92  

Variation in TFAs intake after implementation of measure

See above

Information on national consumer awareness of TFAs issues (e.g. terminology, impact of food choice)

In general there is a lot of focus on health in the Danish media; including focus on industrial trans fats, and the fact that Denmark has a specific rule for this in comparison with other countries. In the national media, industrial trans fats has for example been called ‘the world’s most dangerous fat’ (verdens farligste fedtstof) 93 and there is attention on imported products which contain too much industrial trans fats. 94

Measure impacts

Business responses and costs

Number of business that reformulated their products

(if possible differentiate by large and small companies)

All businesses have to comply with the Order, and already before the introduction of the Order – from the 1990s onwards – the industry was working to reduce the level of industrial trans fats. Only few businesses received dispensation, in cases where they were not able to comply with the Order at the deadline. There is no known exact number of businesses that reformulated their products. 95  

Evidence of FBO sector facing specific challenges

The adjustments observed in Denmark after introduction of the Danish regulation were made relatively quickly for e.g. frying oils and ready-to-eat French fries from the big burger chains, whereas other French fries and frozen potato products as well as certain baking applications, especially cookies, sometimes needed more time to adjust. The demand for longer time to eliminate industrial trans fats from cookies was probably due to difficulties in finding alternative fats with usable properties as well as the existence of many small- and medium-sized baking companies in contrast to the big burger chains. 96

Chocolate producers may not have faced the same challenges as, for example, cookies producers. 97

For which oils/fats was there a reduction in use and with what were they replaced?

Comparisons of the fatty acid profiles showed that in 68% of the products (e.g. sweets, cakes and cookies as well as fast food such as pie and tortilla), industrial trans fats were mainly substituted with saturated fatty acids (SFA). In some cases, the saturated fat source was coconut fat, whereas in other products, palm oil was added instead of partially hydrogenated oils. However, in important cases like frying fats, healthier fat substitutes with monounsaturated fatty acids were used. The surveys showed that the industrial trans fats content has been reduced or removed from most products with originally high industrial trans fats content, such as French fries, microwave oven popcorn and various bakery products. industrial trans fats levels are now insignificant for the intake of trans fats in Denmark. 98  

Costs of changes in products and processes

(if possible differentiate by type of cost and include figures)

A recent report suggests that there was no increase in the price levels of the affected products. The product supply to the Danish market also appears not to have been affected. The Danish industry did not complain about financial losses following the industrial trans fats limit. 99 Margarine producers already complied with the legislation when this was introduced.

At the beginning businesses had to import oils with limited industrial trans fats content. These oils could have been more expensive because they were not mainstream products. This may also have increased the prices of products initially – although these prices are thought to have decreased again. 100

Thirdly, the public health focus in Denmark may also support the development of a market in which many consumers demand health friendly products. Businesses might want to comply with this consumer demand.

Fourth, it could also be taken into consideration that the Danish state may have a relatively strong societal legitimacy when it comes to regulating businesses’ behaviour in society (in comparison to other countries). This could also play a role for businesses’ acceptance of the Order, and the industry’s willingness to create dialogue about changing their products (personal view).

Cost of understanding/learning the measure for FBOs

The process of introducing the Order was cost and time efficient, and in some cases it was even easier than expected; for example, not all businesses had to use the entire transition period to achieve compliance. 101 Buying oils with a limited industrial trans fats was initially more expensive than ordering the conventional oils hitherto. Also, it took time to reformulate all the products – for example in chocolate production – and implement this reformulation in the entire production process. 102 The Confederation of the Danish Industry did not collect data on the costs, as the industry largely lived up to the Order when this was introduced. Also, how businesses were working to reduce the industrial trans fats content could have been commercially confidential. 103

Consumer prices and choice

Evidence of changes in the price of reformulated products

The effect on product prices is thought to have been limited (see previous section). However, as in the case of chocolate, the import of oils with a limited industrial trans fats content for the chocolate production probably initially increased the prices of chocolate initially. 104

Evidence of price differences between products with iTFAs and alternatives

No evidence found. Mainly imported products seem to transgress the allowed Danish industrial trans fats level.

Evidence of changes in the range, quality or taste of products available

No evidence found. The reduced level of industrial trans fats in products where crispiness is important seem to have led to an increase of saturated fat, although the overall fatty acids profile is important to take into consideration to estimate the actual health costs.

Evidence of changes in TFAs consumption

The decreased death rates in Denmark caused by coronary diseases are thought to reflect, at least in part, the effects of changed industrial trans fats consumption.

Effect on consumer information and awareness

The general focus on health in the Danish media and the debates about the harmful effects of industrial trans fats surrounding the legislation led to an increased awareness of industrial trans fats and the negative health consequences of eating too much industrial trans fats.

Health effects

Evidence of benefits on consumer health

(if possible differentiate by age and socio-economic group)

Within the European Union, Denmark has the lowest rate of deaths caused by cardiovascular diseases (share of deaths attributed to cardiovascular diseases). 105

Research suggests that the mortality caused by cardiovascular diseases decreased by 14.2 deaths per 100,000 people annually. 106

Evidence of change in saturated fats intake

As saturated fat is associated with an increased risk of coronary heart disease, the reduced level of industrial trans fats should not lead to an increase of saturated fat – although saturated fat has a similar functionality to industrial trans fats. If industrial trans fats is then replaced with saturated fat, the level of saturated fat ‘should at least be the same or lower than the combined level of trans fats and saturated fat in the original product.’ 107  

In margarine and shortening, the industrial trans fats level was in general reduced without increasing the level of saturated fat. Instead, the level of mono unsuaturated fats was increased. 108  

In a majority of the products however, industrial trans fats was mainly replaced with saturated fat. These were products where the crispiness is very important, and the fat replacing the industrial trans fats must thus have similar functionality. 109

In other products, including chips and frozen potatoes, the level of mono unsuaturated fats was increased when reducing the level of industrial trans fats. 110

The adjustments for the trans fats level could be made fairly quickly in frying products. By contrast, the adjustments took longer with baking products given difficulties of finding replacements for TFA. 111

Competition, innovation and trade

Effect on competition in the domestic market

The Danish industrial trans fats level initially led to criticism from the EU because it was said to cause a trade impediment on imported products, as imported products containing too much industrial trans fats cannot be sold in the Danish market. 112 In such cases, Danish products could have an advantage over imported products.

Changes in trade of affected goods

For imported products, see above. As the industry quickly complied with the Order, no changes in the trade of affected products have been identified.

Effect on innovation among suppliers (i.e. reformulation and/or changes in production processes)

During recent years a number of alternatives have been developed to replace industrial trans fats. 113 Examples were provided of suppliers being keen to work with the producer to deliver the right oils, as the suppliers could see the emergence of a market for oils with a limited industrial trans fats content. 114

Administrative burdens

Number of businesses required to provide information

Food business operators are not obliged to notify to the authorities of the marketing of products and/or provide information regarding content before marketing. The decision to regulate the industrial trans fats content in foods is considered to have eliminated the need to inform the consumer about trans fats on the label. 115

Evidence of economic burden associated with compliance for FBOs

(obtain cost data if possible)

No particular evidence identified. However, the research identified examples of the producers needing to buy specific fats that complied with the Order from suppliers. These fats were probably more expensive initially, as the requirement for less industrial trans fats was new. Also, the changing of product packaging led to extra costs. It also takes a few years to go through all the changes in the entire product chain. 116

Evidence of authorities' effort to enforce/monitor measure

(obtain cost data if possible)

Continuous surveys have been carried out to monitor the development of the industrial trans fats level in foods on the Danish market.

Environmental impacts

Evidence of any environmental costs or benefits

No information found.

Evidence of increase in demand for palm oil / other ingredients

If there has been an increase in the use of palm oil, it is not certain whether this is due to the market prices more generally or an increased demand for palm oil as a replacement for hydrogenated oil/fats. 117  

Effects on deforestation resulting from variation in demand of ingredients

(e.g. palm oil, soy)

No information found.



Germany

Policy status

Existing

Proposed/ considered

Legislation

Voluntary measures

X

Labelling

Proposed by industry

Consumer information

Description of existing measure(s)

Type of measure

Voluntary measure

Description of measure

(if legislation paste exact text of legislation)

Voluntary measure – self-regulation.

In a joint initiative the Federal Ministry of Nutrition and Agriculture (BMEL) and the German food industry agreed a voluntary framework guideline for the minimisation of trans fats in foods that was issued June 2012. This framework guideline included product-specific guidelines for 1) baking, puff-pastry and cream margarines, 2) deep-frying oils and frying fats, 3) cooking oils and fats, 4) savoury snacks, 5) fine bakery wares, 6) processed potato products ,7) frozen pizzas.

Scope of measure

The food industry in Germany had already been working on reducing trans fats from partly hydrogenated fat substantially in many products over the last 20 years. According to data from the National Consumption Study II (NVS II) from 2005 to 2006 and the Food Monitoring Study (2008 to 2009) the average intake of trans fats was below the recommendations from the German Association for Nutrition (DGE). One third of men between 14 and 34 years consumed more trans fats than recommended, mainly due to consumption of non-ruminant industrial trans fats in certain product groups. Against this background the BMEL led a dialogue with economic associations of affected sectors which resulted in a joint initiative between the food industry and the Federal Ministry of Nutrition and Agriculture (BMEL). In close cooperation with a scientific adviser (the Max Rubner Institute (MRI)) the associations developed framework guidelines as well as seven specific guidelines for different product categories. The guidelines are intended to raise awareness among manufacturers and to assist in the transition to TFA-reduced products.

Components of the measure include:

·Joint Initiative Paper: two-page, short version of general principles, published as a press release and signed by all stakeholders

·Framework Guideline / General Principles: detailed information on the initiative with backgrounds, aims and strategy

·Product Guidelines: detailed information and recommendations for the implementation in special product categories

The framework guideline describes the joint arrangements for the minimization of trans fats in foodstuffs and the initiative. The product guidelines describe in each case which products are involved and in which foodstuffs they are used. Subsequently, the special requirements of the respective product categories are discussed. The trans fats content is also described. Finally, recommendations are made on how trans fats can be reduced in the respective products, in which context challenges are also addressed. Attention is also drawn to specific areas where research is required.

The guidelines are aimed at food manufacturers and are used to inform them about the subject of TFA. This gives manufacturers the information they need to optimize their processes in order to further reduce TFA. The business associations involved use different channels (e.g. Internet, print media, newsletters, etc.) to inform their members. They provide information about the background and objectives of the initiative and provide links to further literature. The composition of the online offer is quite different depending on the association and the membership structure. This includes: pure specialist information on the topic in the members' areas, question-and-answer catalogs, and other different service offers, which can be used by the various interested parties at any time.

The participating associations are obligated to report regularly on minimization measures. Three reports from the German Federation for Food Law and Food Science (Bund für Lebensmittelrecht und Lebensmittelkunde (BLL)), which is coordinating the industry contributions under the scheme, are now available and are available on the BLL website. 118

Institutions and associations participating in the agreement:

·Federation of Food Law and Food Science

·Federal Ministry of Food, Agriculture and Consumer Protection

·Federal Association of the German Sweets Industry

·Federal Association of Canteen Tenants

·Federal Association of the Fruit, Vegetable and Potato Processing Industries.

·Federal Association of System Gastronomy

·Federal association of the German food trade

·Federal association of German Market Selling Businesses

·Federal Association of Fast Food and Snack-Service Companies

·The German Association for Baking Ingredients

·German Hotel and Catering Association

·German Confectioner's Association

·Deutscher Schaustellerbund e.V.

·German Institute for Frozen Food

·OVID Association of the Oilseed Processing Industry in Germany

·Association of the German Margarine Industry

·Association of Culinary Food Manufacturers

·Association of German Bakeries

·Central Association of the German Bakery Trade

Since the introduction of the measures, relevant sectors have started to change their production conditions for the fats. Data from the state food monitoring show that, for example, the trans fats content of hydrogenated fats, fat-rich, sweet spreads and pastry products were significantly reduced. 119

FBOs covered

This framework guideline includes product-specific guidelines for 1) baking, puff-pastry and cream margarines, 2) deep-frying oils and frying fats, 3) cooking oils and fats, 4) savoury snacks, 5) fine bakery wares, 6) processed potato products ,7) frozen pizzas.

Derogations

(e.g. low fat products, local products)

N/A

Share of SMEs involved

(in case of voluntary measures)

Associations representing SMEs were involved in all measures and research activities.

Length and characteristics of transition period

The measure has been in place since June 2012. No transition period was agreed with the participating organisations.

Arrangements for measure enforcement and compliance monitoring

The German Federation for Food Law and Food Science (Bund für Lebensmittelrecht und Lebensmittelkunde (BLL)) has issued yearly reports on the measures taken by industry from 2013 onwards and informs the Federal Ministry of Food and Agriculture (formerly the Federal Ministry of Food, Agriculture and Consumer Protection (BMELV)) regularly about this. The signatory associations provide BLL with the necessary documentation. 120

In the beginning of 2017 the third report on measures on trans fats was published. 121

Rate of compliance/ participation and favouring conditions

(in case of voluntary measures)

The above listed business associations and their members are participating in the measure. Business has attempted to comply with the guidelines and the levels of trans fats were reduced after introduction of the measure. However, it has reported that the implementation of the specific product guidelines is a particular challenge for SMEs. Recipes partly need changing to maintain texture and taste despite substitution of, for example, baking fats.

Tests used to assess trans fats content

As an examination method for the determination of the composition of the fatty acids, the gas chromatographic analysis of the fatty acid methylester has been chosen. For the separation, the use of polar capillary columns with a stationary phase of cyanopropyl-polysiloxane having a length of at least 50 m, preferably 100 m has proven useful. A previous enrichment of the trans fats via a silver ion chromatography was considered as not required.

For the purposes of the guidelines, only those TFAs with a chain length of 18 carbon atoms were considered. TFAs with different chain lengths usually make up a negligible proportion. The three main groups of TFAs are derived from oleic acid, linoleic acid and linolenic acid. TFAs elute on the polar capillary columns described above, respectively before the corresponding cis fatty acids, i.e. between stearic acid methyl ester and oleic acid methyl ester, and also before linoleic acid methyl ester and linolenic acid methyl ester. Fatty acids with conjugated double bonds as characteristic for milk fat, are not included in the assessment.

Further information on trans fats content data used for the assessment can be found here: TFA-Gehaltsdaten: http://www.bfr.bund.de/cm/343/hoehe-der-derzeitigen-trans-fettsaeureaufnahme-in-deutschland-ist-gesundheitlich-unbedenklich.pdf ]

Steps taken to raise consumer awareness

For the participating associations, raising awareness within their respective member groups is central to implementing the guidelines. The type of dissemination activities (e.g. Internet, print media, newsletters, working groups, etc.) and content differs depending on the type of association and target industry. The central concern of all participating associations is to reach a broad membership and to elaborate on and enhance possibilities for minimizing non-ruminant TFA. Different media was used including:

1. Information on the homepage of the associations
2. Press releases

3. Circulation

4. (Committee) meetings / working groups / meetings

5. Newsletter

6. Annual reports

7. Specialist events and scientific congresses

8. Trade Journals

The participating organisations are reporting on their initiatives in this field to the BLL as part of their yearly reporting obligation.

Guidance provided to affected businesses

·Framework Guideline / General Principles: detailed information on the initiative with backgrounds, aims and strategy

·Product Guidelines: detailed information and recommendations for the implementation in special product categories

Effectiveness of the measure

Since signing the guidelines in June 2012, the participating associations have been working on implementation. An assessment of the trans fats intake in Germany undertaken one year after the introduction of the measure (2013) by the Federal Institute for Risk Assessment (BfR) confirmed the success of the minimization measures of the German food industry and showed that the current trans fats intake in Germany is under the defined limits and not a relevant risk factor for the development of cardiovascular diseases. 122 The German food industry has indicated its commitment to further reduce the content of non-ruminant trans fats in foodstuffs, provided this is technically feasible and reasonably achievable.

However the BLL indicates that the legal framework for labeling continues to pose a challenge to the implementation of the guidelines, since, according to the provisions of the Food Information Regulation, the trans fats content must not be voluntarily marked either on foodstuffs for the final consumer or on raw materials for industrial production. 123

Describe (if any) other measures that are currently being considered

For the food industry, the clear recognition of low trans fats foodstuffs and raw materials through labelling is an important step for the further reduction of non-ruminant TFA. Current legislation does not require this. Against this backdrop, many of the participating associations argue for the possibility of voluntarily providing the non-ruminant trans fats content on their products. 124

TFAs in foods and diets

TFAs content in food

(by product, if available please distinguish by trans fats source – industrial trans fats and ruminant trans fats, andpartly hydrogenated oil)

In 2008 the following trans fats content was reported for a range of products: 125

·0.4% to 2% in plant margarine, waffles, baking margarine, fat-rich sweet spreads

·2% to 5% in puff pastry, croissants, pastries, pigs' ears, cream tarts, Stollen

·5% to 10% in Zieh margarine, Crème margarine, Fine pastry made of light dough

·10% to 15% in fat pastry from yeast dough, donuts

In Zieh margarine, Crème margarine, fine baked goods made from light-dough and pastries made from yeast dough, 57% to 65% of all samples had a total content of trans-fatty acids of more than 5 g / 100 g total fat. As part of the monitoring program, it has also been confirmed that industrial margarines contain significantly more trans-fatty acids than plant margarines for the household.

Positive results were found for fat-rich sweet spreads (eg peanut cream, nut nougat cream, milk chocolate): the content of trans fatty acids was less than 2 g / 100 g of total fat in 83% to 100% of all samples in this category.

In 2011 the following trans fats content was reported for ice cream, eggs, soup and sauces (includes rTFA and iTFA) 126 :

Ice-cream = 0.03-2.9 g TFA/100 g fat (Mean/Median: 0.47 g/0.32 g TFA/100 g fat)

Egg = 0.02-1.47 g TFA/100 g fat (Mean/Median: 0.65 g/0.50 TFA/100 g fat)

Soup = 0.01-18.9 g TFA/100 g fat (Mean/Median: 0.86 g/ 0.40 g TFA/100 g fat)

Sauces = 0.02-46.0 g TFA/100 g fat (Mean/Median: 1.63 g /0.51 gTFA/100 g fat)

A study published in 2011 indicated the following trans fats product content in g per 100 g of total fat 127 :

·Doughnuts: 7.3g

·Butter: 3.1g

·Puff pastries: 2.6g

·Chocolate products: 2.1g

·Instant products: 2.02g

In this study, 96% of the deep-fried potato products, 90% of the confectioneries, 90% of the instant products and 82% of the semi-solid fats contained less than 2% trans fats of FAME.

The study indicated that the trans fats proportion in foods on the German market is declining, especially within the former high risk food groups such as french fries, margarines and shortenings.

Future projections of TFAs content in food (e.g. a major FBO pledged to reduce trans fats content in own products)

No information found.

TFAs intake

(if available please report data by trans fats source – iTFA and rTFA, age and socio-economic group, andpartly hydrogenated oil contribution)

In 2012 (before the initiative was introduced) the average intake of trans fats was reported to be below recommendations from German Association for Nutrition (DGE). However, young people (between 14-34 years) were at the time heavy consumers with more than 1% trans fats of the daily amount of total energy consumption. This was mainly caused by consumption of non-ruminant industrial trans fats in some product groups. 128

The evaluation of the trans fats intake in Germany by BfR, which was published in 2013, one year after implementation of the joint initiative, shows that reductions were successfully achieved. The average intake (14-80 y) was estimated as 1.6 g/day or 0.66 E%. For most consumers (including the vast majority of young people between 14-34 years) trans fats intake was lower than 1% of their dietary energy intake. It concludes that the current level of trans fats intake in Germany does no longer represent a relevant risk factor for the development of cardiovascular disease.

Variation in TFAs intake after implementation of measure

See above.

Information on national consumer awareness of TFAs issues (e.g. terminology, impact of food choice)

No information found.

Measure impacts

Business responses and costs

Number of business that reformulated their products

(if possible differentiate by large and small companies)

No information found.

Evidence of FBO sector facing specific challenges

No information found.

For which oils/fats was there a reduction in use and with what were they replaced?

For each product guideline the alternative oils/fats were identified:

For example, for frying oil, new TFA-low oil and fat mixtures were identified that are technologically-feasible and already available on the market. For example, high-oleic acid (HO rapeseed or HO sunflower) oils were recommended. The advantages of these modern TFA-low frying oils are in their nutritionally- and physiologically-favorable composition, with heat and oxidation stability comparable to conventional oils, good sensory results (taste and odor) and markedly reduced trans fats contents in the final product (pastry/dumplings).

The product guidelines also identify TFA-low margarines as well as the possible exchange of partially hardened vegetable fats and oils (high-TFA content) through non-hardened vegetable fats and oils as technologically feasible for the production of cookies, potato crisps etc.

The product guidelines indicate that the transition to TFA-low oils and fats has been practiced in many of the product groups for several years and has shown good results.

Costs of changes in products and processes

(if possible differentiate by type of cost and include figures)

Research conducted between 2013 and 2015 showed that low-TFA frying fats are less expensive as compared to partially hydrogenated peanut fats. 129

Cost of understanding/learning the measure for FBOs

No information found.

Consumer prices and choice

Evidence of changes in the price of reformulated products

No information found.

Evidence of price differences between products with iTFAs and alternatives

No information found.

Evidence of changes in the range, quality or taste of products available

No information found.

Evidence of changes in TFAs consumption

No information found.

Effect on consumer information and awareness

No information found.

Health effects

Evidence of benefits on consumer health

(if possible differentiate by age and socio-economic group)

No information found.

Evidence of change in saturated fats intake

No information found.

Competition, innovation and trade

Effect on competition in the domestic market

No information found.

Changes in trade of affected goods

No information found.

Effect on innovation among suppliers (i.e. reformulation and/or changes in production processes)

No information found.

Administrative burdens

Number of businesses required to provide information

No information found.

Evidence of economic burden associated with compliance for FBOs

(obtain cost data if possible)

Implementation of the specific product guidelines is a particular challenge for SMEs. Recipes partly need changing to maintain texture and taste with the substitution of, for example, baking fats.

Evidence of authorities' effort to enforce/monitor measure

(obtain cost data if possible)

No information found.

Environmental impacts

Evidence of any environmental costs or benefits

No information found.

Evidence of increase in demand for palm oil / other ingredients

No information found.

Effects on deforestation resulting from variation in demand of ingredients

(e.g. palm oil, soy)

No information found.

Additional references

https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf



Hungary

Policy status

Existing

Proposed/ considered

Legislation

X

Voluntary measures

Labelling

Consumer information

X

Description of existing measure(s)

Type of measure

Legislation

Description of measure

(if legislation paste exact text of legislation)

Decree 71/2013 of the Ministry of Human Resources 130

‘It is forbidden to place on the market food products in which the amount of trans fats exceeds 2 g for every 100 g of the total fat content of food products provided or sold to end consumers. This does not include the storage of said products in their finished state in order to place them on the market outside Hungary.’ ’For processed food products consisting of multiple ingredients, the above paragraph shall not apply if (a) the total fat content of the food product is lower than 20%; in this case, the amount of trans fats may not exceed 4 g for every 100 g of the total fat content of said food product; (b) the total fat content of the food product is lower than 3%; in this case, the amount of trans fats may not exceed 10 g for every 100 g of the total fat content of said food product.’

Scope of measure

National

FBOs covered

All FBOs involved in food production for the Hungarian market

Derogations

(e.g. low fat products, local products)

TFAs of animal origin

Share of SMEs involved

(in case of voluntary measures)

Not applicable, legislation.

Length and characteristics of transition period

The decree came into effect on 18/02/2014, 90 days after its official publication. Nevertheless, foodstuff being at the market on the date of publication of the decree, could still be marketed until their expiration date with a maximum of up to 12 months after the entry into force of the decree.

Arrangements for measure enforcement and compliance monitoring

Quarterly report is being prepared by the territorial government offices which results are sent to the National Food Chain Safety Agency (Nébih). This institution summarises the results received and forwards the report to the National Institute of Pharmacy and Nutrition (OGYÉI). 131

Rate of compliance/ participation and favouring conditions

(in case of voluntary measures)

Not applicable, legislation.

Tests used to assess trans fats content

Regular laboratory test carried out by the OGYÉI. It examines the amount of TFAs isomers with 14, 16, 18, 20 or 22 carbon atoms in food products. iTFA content of foods marketed in Hungary monitored annually since 2009. Publication on the latest test results from 05/2017 showing the TFA% per type of foodstuff. 132

Steps taken to raise consumer awareness

As part of a 6 week-long health promotion programme organised in 10 towns around lake Balaton in Hungary in 2013, 1,643 participants (66% males) were asked about TFA. 65% of respondents gave a correct answer regarding the origin of iTFA whereas 18% were knowledgeable of the foods considered to contain iTFA. The number of correct answers showed a positive correlation with education level, and a correlation with the place of residence (city, town, and village) was observed. Targeted information and educational campaigns by the Ministry of Human Resources taking place in hospitals and sanitary institutions, social media, TV spots, web. 133

Guidance provided to affected businesses

Industry representatives claim that no sufficient guidance was provided by the government in relation to the legislation. They found the transition period short and insufficient. As a recommendation, they would like to have more timely, open and useful communication next time when a measure of such importance gets implemented. 134

Effectiveness of the measure

National legislation, covering all food products being produced and sold in Hungary.

18 February 2014:The announcement of the Decree

18 February 2015 Sell off period of food products that are already on the market when the regulation entered into force

Describe (if any) other measures that are currently being considered

Measure already in place: 37/2014 decree of Ministry of Human Resources on reforming the public canteens. The decree aimed to foster healthy, balanced nutrition in all public canteens (i.e. schools) by defining the binding daily intakes per different nutrition groups. 135

TFAs in foods and diets

TFAs content in food

(by product, if available please distinguish by trans fats source – iTFA and rTFA, andpartly hydrogenated oil)

A nationwide quarterly monitoring of the trans fats content in alimentary products in Hungary. Food samples from different groups are checked with regard to the trans fats content.

The results are publicly available, nevertheless the products are selected randomly which makes comparison rather complicated. The table below offers an overview (extracted from the dataset) of the trans fats g/100g total fat on different food groups based on the monitoring between 1st quarter 2014 – 1st quarter 2017 136 : According to the data available, the vast majority of products comply with the regulation with only few exceptions.

2014

2015

2016

2017

Margarines/oils

Min: 0.08

Max: 2.27

Av: 0.68

Min: 0.05

Max: 1.93

Av: 0.59

Min: 0.05

Max: 1.31

Av: 0.73

Only 1 product examined: 0.88

Bakery products, pasta

Min: 0.23

Max: 6.08

Av: 0.90

Min: 0.16

Max: 1.31

Av: 0.66

Min: 0.2

Max: 3.86

Av: 0.86

No product examined

Sweet biscuits, tea biscuits

Min:0.05

Max:7.53

Av:0.86

Min:0.09

Max:22.15

Av:1.23

Min:0.14

Max:13.00

Av:1.26

Min: 0.2

Max: 0.48

Av: 0.34

Variation in TFAs content in food after implementation of measure

All FBOs needed to reformulate their products in order to comply with the national legislation. The table above gives a good indication of the impact of the Decree.

Future projections of TFAs content in food (e.g. a major FBO pledged to reduce trans fats content in own products)

Since the Decree is legally binding, all FBOs must comply with it.

TFAs intake

(if available please report data by trans fats source – iTFA and rTFA, age and socio-economic group, andpartly hydrogenated oil contribution)

The estimated iTFA intake of the Hungarian population is 6.8g/day, taking into account the average consumption data based on the three day dietary questionnaire and the highest iTFA values of the food category. According to the result of a National Nutritional Survey in Kindergartens (OTEF 2009), in 10% of nurseries the daily menu contained more than 2 % TFA. 137

Variation in TFAs intake after implementation of measure

According to the National Institute of Pharmacy and Nutrition, the daily trans fats intake decreased from 6.8 g to less than 1 g two years after the entry into force of the legislation. 138

Information on national consumer awareness of TFAs issues (e.g. terminology, impact of food choice)

No research on this topic have been carried out, thus no information can be provided here. It can, however, be said that in parallel with the entry into force of the legislation, the vast majority of the Hungarian media (printed, online, TV, radio) raised awareness of the topic, providing consumers with information not only about the Decree but the health risks of high daily trans fats intake.

Measure impacts

Business responses and costs

Number of business that reformulated their products

(if possible differentiate by large and small companies)

The number of SMEs in the affected sectors is particularly high. For them, the obligation to reformulate their products might be particularly demanding (as they often struggle from lack of specialist knowledge, information, financial flexibility and means). Industrial fats with less than 2% trans fats content are 13-50% more expensive, what means that there is a close relationship between the price of the industrial fat used and the price of the actual product. 139

Evidence of FBO sector facing specific challenges

The transition set a number of challenges as follows: 140

-New types of fats to be used

-Changing long term contracts of FBOs with subcontractors

-Discontinue certain products in order to save on new machinery

-New machinery/equipment to be purchased

-Carry out laboratory tests on the trans fats content of products

-Change of wrapping and packaging material

For which oils/fats was there a reduction in use and with what were they replaced?

Only anecdotal evidence was found that claims that the previously used fats have been increasingly replaced by palm. 141

Costs of changes in products and processes

(if possible differentiate by type of cost and include figures)

The Federation of Hungarian Food Industries stated that "industrial fats of a trans fats content below 2% are by 13-30% more expensive, a fact which means a substantial increase in ingredients’ price." When asked about any FBO sector (e.g. SMEs, producers of specific foods) that faced particular challenges, 8 out of 18 confirmed to have corresponding information. According to one SME (referenced in this document), the total cost of transition in the case of a 10 billion HUF (35 Mio EUR) turnover company was approximately 100 mio HUF (300.000 EUR). This source suggests the new types of fats used cost on average 58% more compared to previous one. 142

Cost of understanding/learning the measure for FBOs

See above.

Consumer prices and choice

Evidence of changes in the price of reformulated products

No data available on this, however the Hungarian Statistical Office have been publishing consumer price index every year since 1985. The factors for the increase/decrease of prices are not identified here. The table below shows an extract of the food price index, indicating the increase/decrease of prices compared to the year before.

2013

2014

2015

2016

102,8

99,6

100,9

100,7

Evidence of price differences between products with iTFAs and alternatives

Not identified.

Evidence of changes in the range, quality or taste of products available

Not identified.

Evidence of changes in TFAs consumption

The daily intake of trans fats decreased from 6.8 g per person/day to less than 1 g per person/day two years after the entry into force of the legislation.

Effect on consumer information and awareness

In parallel with the entry into force of the legislation, the vast majority of the Hungarian media (printed, online, TV, radio) raised awareness of the topic, providing consumers with information not only about the Decree but the health risks of high daily trans fats intake. Despite not being measured, it can be concluded that the awareness of Hungarian consumers has significantly increased.

Health effects

Evidence of benefits on consumer health

(if possible differentiate by age and socio-economic group)

As researches show, a daily intake of trans fats of 5 g per person/day increases the risk of cardiovascular diseases by 23%.

Evidence of change in saturated fats intake

No evidence of changes over time

Competition, innovation and trade

Effect on competition in the domestic market

Anecdotal evidence that SMEs were more seriously affected by the legislation, given their more vulnerable financial situation. Production of certain products was discontinued in the absence of financial resources to reconstruct recipes, test the new products and start production. In the meantime, bigger FBOs complied relatively easily with the legislation.

Changes in trade of affected goods

Over the recent years, margarines became synonymous with TFAs and there is expected to have been a decrease in consumption, but no hard data are available on this.

Effect on innovation among suppliers (i.e. reformulation and/or changes in production processes)

Suppliers did reformulate their products. A broader impact on innovation at the company level was not identified.

Administrative burdens

Number of businesses required to provide information

According to the national legislation, businesses are not required to provide information.

Evidence of economic burden associated with compliance for FBOs

(obtain cost data if possible)

According to one SME, the total cost of transition in the case of a 10 billion HUF (35 Mio EUR) turnover company was approximately 100 million HUF (300.000 EUR). This source suggested that the new types of fats used cost on average 58% more compared to previous ones. 143

This single report cannot be taken as representative of the typical impact.

Evidence of authorities' effort to enforce/monitor measure

(obtain cost data if possible)

A nationwide quarterly monitoring of the trans fats content in alimentary products in Hungary is being conducted by the territorial government offices. Results are sent to the National Food Chain Safety Agency (Nébih).

Environmental impacts

Evidence of any environmental costs or benefits

Not identified

Evidence of increase in demand for palm oil / other ingredients

Only anecdotal evidence, mentioning the increased use of palm oil and its negative environmental effects, mostly deforestation. No statistics are available for Hungary on palm oil import/demand.

Effects on deforestation resulting from variation in demand of ingredients

(e.g. palm oil, soy)

As above.

Latvia

Policy status

Existing

Proposed/ considered

Legislation

X

Voluntary measures

Labelling

Consumer information

Description of existing measure(s)

Type of measure

Legislation

Description of measure

(if legislation paste exact text of legislation)

Cabinet of Ministers Regulation No. 301 on maximally allowed trans fatty acids quantities in food products, adopted on 17 May 2016, in force as of 20 May 2016.

1.The regulation outlines maximally allowed trans fatty acids quantities in food products produced in Latvia, including public catering companies, imported from other European Union member states and countries of European Economic area or third countries, intended for distribution in Latvia.

2.The regulatory requirements apply to food products including trans fatty acids that have been created in the following technological processes of food production:

2.1. by hydrogenating oil;

2.2. by pressing oil at high temperature;

2.3. by frying and heating food products in oil;

2.4. by baking and frying fat-containing food products.

3. The regulatory requirements shall not apply to animal fat and products containing trans fatty acids resulting from natural processes, not being added in the food production process.

4. The maximum amount of trans fat acids in food products shall not exceed 2 g per 100 g of total fat, with the exception of food products mentioned in Articles 5 and 6 of these regulations.

5. The maximum amount of trans fat acids in food products where the total fat content is less than 3%, shall not exceed 10 g per 100 g of total fat content.

6. The maximum amount of trans fat acids in food products where the total fat content is between 3% and 20%, must not exceed 4 g per 100 g of total fat content.

7. Food products that exceed the maximum quantities of trans fat acids laid down in Articles 4, 5 or 6 of these regulations, can be distributed in Latvia until 1 June 2018.

Informative Reference to European Union directive.

These regulations contain legal norms arising from the Directive (EU) 2015/1535 of the European Parliament and of the Council of 9 September 2015 laying down a procedure for the provision of information in the field of technical regulations and of rules on Information Society services.

Scope of measure

Food products produced in Latvia, including by public catering companies, and food products imported from other European Union member states and countries of European Economic area or third countries, intended for distribution in Latvia.

The regulatory requirements apply to food products including trans fatty acids that have been created in the following technological processes of food production: by hydrogenating oil; by pressing oil at high temperature; by frying and heating food products in oil; by baking and frying fat-containing food products.

The regulatory requirements shall not apply to animal fat and products containing trans fatty acids resulting from natural processes, not being added in the food production process.

FBOs covered

It was estimated that the Regulation would affect 7800 food companies, including 6536 public catering companies. At the same time the Ministry of Agriculture did not have precise information on companies that use trans fatty acids in their products.

Derogations

(e.g. low fat products, local products)

1. The maximum amount of trans fatty acids in food products where the total fat content is less than 3%, shall not exceed 10 g per 100 g of total fat content.

2. The maximum amount of trans fat acids in food products where the total fat content is between 3% and 20%, must not exceed 4 g per 100 g of total fat content.

Share of SMEs involved

(in case of voluntary measures)

Not applicable.

Length and characteristics of transition period

Transition period until 1 June 2018 for the distribution of products exceeding the maximally allowed quantities of trans fat acids as set out in this regulation. The two year transition period was introduced to limit the negative financial impact of the regulation on food production companies, giving producers enough time to use the existing product packaging and sell the products already produced, as well as change product recipes and production technologies, and create new product packaging to align with the new regulation.

Arrangements for measure enforcement and compliance monitoring

The Food and Veterinary Service (Pārtikas un Veterinārais dienests) is tasked with conducting 1000 additional food controls and 100 laboratory tests of food samples annually, starting from 1 June 2018, when the transition period of the regulation will end. If violations of this regulation are found, the service can issue a written warning, as well as halt or limit the operations of the food production company (including the operations of specific units or plants).

Rate of compliance/ participation and favouring conditions

(in case of voluntary measures)

Not applicable.

Tests used to assess trans fats content

TFA content is analysed using the gas chromatography method in the Institute of Food Safety, Animal Health and Environment (BIOR). The cost of analysing one product is 52.25 EUR (excluding VAT). According to the estimates of the Ministry of Health, each of the 6536 public catering companies will have to test approximately 5 products annually as a self-controlling measure, resulting in the overall financial burden of 1.7 million EUR. In addition, if it is assumed that each of the 1264 food production companies purchase fats with unidentified amount of trans fats content, these companies will also have to send these ingredients for tests at BIOR. According to the estimates of the Ministry of Health, the costs of these tests could amount to 198,000 EUR, assuming that each company orders three tests.

Steps taken to raise consumer awareness

Awareness raising was conducted as part of broader educational campaigns, cooperating with municipalities and schools. 'Heart Health' 2014-2015 campaign run by the Ministry of Health included several health promotion activities and public health campaigns to draw attention to the main cardiovascular disease risk factors including TFA. Dietary guidelines developed by the Ministry of Health include recommendations to not use food products which contain partially hydrogenated vegetable oils. Such guidelines have been published for different age groups – children from the age of 2 to 18, adults, as well as people over the age of 60. The Ministry of Health has also published on its website a 1-page fact sheet on TFAs. In 2016 the Centre for Disease Prevention and Control published an infographic on fats in nutrition, including information on TFAs and products that most frequently contain TFAs. 144

Guidance provided to affected businesses

Representatives of food production businesses, including the Latvian Federation of Food Companies, were involved in the legislative process drafting the adopted legislation. In 2014 the Centre for Disease Prevention and Control, in cooperation with the World Health Organisation's representation in Latvia, organized a 2-day seminar on how to decrease salt and trans fats content in food, including best practices from Latvia and other European countries on technologies used. The seminar was also attended by representatives of food production and public catering businesses. 145  

Effectiveness of the measure

Effectiveness of the measure cannot be assessed prior to the end of the transition period (1 June 2018).

Describe (if any) other measures that are currently being considered

Since June 2012 the Cabinet of Ministers Regulation No 172, regarding Nutritional Norms for Students of Educational Institutions, Clients of Social Care and Social Rehabilitation Institutions and Patients of Medical Treatment Institutions, prohibits the use of products containing partially hydrogenated vegetable fats (like sugar confectionery, pastries and margarine) in these institutions. The purpose of this Regulation is to ensure the use of healthy and balanced nutrition in pre-schools, general and VET schools, as well as in long-term social care and social rehabilitation institutions, and health care institutions. The main motivation for excluding confectionery containing partially hydrogenated vegetable fats from the meals provided in these institutions was to limit the consumption of foods that are not necessary for the daily consumption requirements of children, patients and social care institution clients (for example food products that contain TFA).

TFAs in foods and diets

TFAs content in food

(by product, if available please distinguish by trans fats source – iTFA and rTFA, andpartly hydrogenated oil)

A study conducted in 2013 by the Institute of Food Safety, Animal Health and Environment (BIOR) on 102 food products from seven food product groups found that the content of trans fats was not detected in 37% of analysed food products (the content of trans fats was < 0.1%). At the same time in 22 out of 102 products the content of trans fats exceeded 2%. Butter and sour cream products were characterised by the highest risk for trans fats content – average trans fats content was 6.3% (from 0.2% to 12.3% in sour cream products, and from 3.3% to 9.1% for butter products). Three cheese and cottage cheese/curd products also included considerable trans fats content – 5.6%, 6.2% and 6.4% respectively. At the same time almost two-thirds of samples of this product group had a trans fats content of 0.7-1%, with the average indicator for the product group at 1.8%. Seven ice cream samples included trans fats content from 0.1 to 2%. Out of the 19 tested white bread samples only three contained trans fats in the amount of 0.6%, 1.3% and 1.7% of fat content. Out of the 29 tested pastry products (biscuits, waffles), 13 products contained trans fats in the amount of less than 0.1% of fat content. The average amount of trans fats content for this product group was 0.6%, while 3 products contained 2.4%, 2.7% and 2.9% TFA. 14 pastry products (pastries, cakes) on average included 1% TFA, while the highest values among the samples were 2.2%, 2.9% and 3.3%. trans fats concentration was very low in foreign-origin margarine sold in Latvian market (< 0.1%, 0.2% and 0.4%). 146  

Variation in TFAs content in food after implementation of measure

Effects of the adopted legislation are likely to be visible after 1 June 2018 when the transition period ends.

Future projections of TFAs content in food (e.g. a major FBO pledged to reduce trans fats content in own products)

Food production companies paid special attention to trans fats content in products in 2011, when test results published by Danish professor, Steen Stender (Department of Clinical Biochemistry, Copenhagen County Hospital in Gentofte, University of Copenhagen) revealed high amount of trans fats content in some confectionary products (waffles) made by Laima and Staburadze owned by NP Foods. Following a public uproar, the two food production companies replaced ingredients of these products with vegetable fats, claiming that their products from thereon (September 2011) would have 0% of trans fats content. No other major FBOs have made pledges to reduce trans fats content in the future beyond what legislation requires. 147  

TFAs intake

(if available please report data by trans fats source – iTFA and rTFA, age and socio-economic group, andpartly hydrogenated oil contribution)

No specific data are available on TFAs intake. The only data available are on the consumption of different food products among adults and pupils, including those which may contain TFAs like pastry products, sweets and potato chips.

According to a 2014 study on the habits affecting health of adults (aged 15-74), pastry products (pastries, biscuits/ cookies, cakes) were frequently consumed (3 and more days per week) by 24.7% men and 24.9% women. 148  

The data for 2016 show a slight decrease – 22.5% of men and 22.3% of women consumed pastries, cookies or cakes 3 and more days per week. 149  

According to a 2007 study, almost 40% of pupils in the age of 11, 13 and 15 ate sweets at least once a day. Girls consumed sweets more frequently than boys (on average by 11% more frequently). The highest proportion of pupils consuming sweets were in the age of 13. Potato chips were consumed at least once a week by 59% of surveyed pupils, while 7.7% ate potato chips every day at least once a day. 150  

According to a 2014 study, almost every third pupil consumed sweets every day (22% boys and 33% girls), with the highest proportion of pupils consuming sweets in the age of 15 (24% of boys and 36% of girls). 151  

Variation in TFAs intake after implementation of measure

Effects of the adopted legislation will be visible after 1 June 2018 when the transition period ends.

Information on national consumer awareness of TFAs issues (e.g. terminology, impact of food choice)

There are no studies available on this issue, according to the Ministry of Health.

Measure impacts

Business responses and costs

Number of business that reformulated their products

(if possible differentiate by large and small companies)

The Ministry of Agriculture does not have a precise figure on the number of companies that will need to reformulate their products, as data on companies making products exceeding the TFAs content limited in the regulation are not available. The number of businesses likely to be affected (7800 food companies, including 6536 public catering companies) include all companies, disregarding whether they make products containing TFAs exceeding the limits set in the regulation, or not.

Evidence of FBO sector facing specific challenges

The study on TFAs content reveals that food companies producing butter and sour cream products as well as cheese and cottage cheese/curd products could face most significant challenges, as the study showed that these product groups contained highest TFAs content (specific products with 5.6% - 12.3% trans fats content in fat content).

For which oils/fats was there a reduction in use and with what were they replaced?

It is predicted that hydrogenated vegetable oils will be replaced by vegetable oils and butter. For example, the dairy producer Rīgas Piensaimnieks will reformulate 4 out of 150 products to align with the requirements of the Regulation. In all of these products hydrogenated vegetable oils are replaced with butter (one reformulated product has been in the market since May 2017, the other will enter the market in August 2017, while the last 2 reformulated products will be produced as of December 2017).

Costs of changes in products and processes

(if possible differentiate by type of cost and include figures)

This information cannot be obtained until the end of the transition period (1 June 2018), when businesses will have had time to adjust their production processes.

Cost of understanding/learning the measure for FBOs

This information cannot be obtained until the end of the transition period (1 June 2018), when businesses will have had time to adjust their production processes.

Consumer prices and choice

Evidence of changes in the price of reformulated products

Prior to introducing the Regulation the responsible ministries – Ministry of Health and Ministry of Agriculture – did not expect substantial changes in product prices as a result of having to replace TFAs with alternatives such as vegetable oils. However, if the trans fats is replaced with butter, the price of the product may increase. Specific data will not be available until the end of transition period (1 June 2018), when businesses have time to reformulate their products.

Evidence of price differences between products with iTFAs and alternatives

No information found.

Evidence of changes in the range, quality or taste of products available

No information found.

Evidence of changes in TFAs consumption

As the transition period of the adopted legislation will only end on 1 June 2018, it is impossible to assess the effect of this measure with regard to changes in TFAs consumption.

Effect on consumer information and awareness

As the transition period of the adopted legislation will only end on 1 June 2018, it is impossible to assess the effect of this measure on consumer information and awareness.

Health effects

Evidence of benefits on consumer health

(if possible differentiate by age and socio-economic group)

According to Eurostat, 16,372 deaths were caused by diseases of the circulatory system, equivalent to 57% of all deaths in Latvia in 2013, which is considerably higher than the EU-28 average of 37.5% for the same year. The effect of the adopted legislation on this indicator can be assessed after the end of the transition period (1 June 2018).

Evidence of change in saturated fats intake

No specific data are available on saturated fats intake.

Competition, innovation and trade

Effect on competition in the domestic market

No information found.

Changes in trade of affected goods

No information found.

Effect on innovation among suppliers (i.e. reformulation and/or changes in production processes)

No information found.

Administrative burdens

Number of businesses required to provide information

The chosen measure does not include a requirement for businesses to provide information unless the responsible institution (Food and Veterinary Service) requests this information in the framework of an inspection on site. In this case the company is required to provide information on the specification and the recipe of the product.

Evidence of economic burden associated with compliance for FBOs

(obtain cost data if possible)

TFA content is analysed by using gas chromatography method in the Institute of Food Safety, Animal Health and Environment (BIOR). The cost of analysing one product is 52.25 EUR (excluding VAT). According to the estimates of the Ministry of Health, each of the 6,536 public catering companies will have to test approximately 5 products annually as a self-controlling measure, resulting in a financial burden of 1.7 million EUR. In addition, if one assumes that each of the 1,264 food production companies purchase fats with unidentified amount of trans fats content, these companies will also have to send these ingredients for tests at “BIOR”. According to the estimates of the Ministry of Health, the costs of these tests could amount to 198,000 EUR (assuming that each of the companies makes 3 tests).

The Ministry of Health also estimated that the cost of reformulation of products could be 60,000 EUR (assuming that each of the 1264 food production companies has to reformulate 3 products spending 8 hours on each product).

Evidence of authorities' effort to enforce/monitor measure

(obtain cost data if possible)

Food and Veterinary Service (Pārtikas un Veterinārais dienests) will need 86,000 EUR to conduct additional controls and order needed laboratory tests in 2018. As of 2019 the cost of this function is estimated at 63,000 EUR annually.

Environmental impacts

Evidence of any environmental costs or benefits

No information found.

Evidence of increase in demand for palm oil / other ingredients

No information found.

Effects on deforestation resulting from variation in demand of ingredients

(e.g. palm oil, soy)

No information found.

Additional references

https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf

https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-report_en.pdf

http://publications.jrc.ec.europa.eu/repository/bitstream/JRC91353/lbna26795enn.pdf

http://publications.jrc.ec.europa.eu/repository/bitstream/JRC91353/lbna26795enn.pdf

http://ec.europa.eu/eurostat/statistics-explained/index.php/Cardiovascular_diseases_statistics

http://ec.europa.eu/eurostat/statistics-explained/index.php/Cardiovascular_diseases_statistics

http://ajcn.nutrition.org/content/104/5/1218

http://ajcn.nutrition.org/content/104/5/1218  

https://likumi.lv/ta/id/282210-noteikumi-par-maksimali-pielaujamo-transtaukskabju-daudzumu-partikas-produktos

https://likumi.lv/ta/id/282210-noteikumi-par-maksimali-pielaujamo-transtaukskabju-daudzumu-partikas-produktos  

https://likumi.lv/doc.php?id=245300

https://likumi.lv/doc.php?id=245300  

https://www.zm.gov.lv/public/ck/files/ZM/TP petijumi/Transtaukskābes_pētījums.pdf

https://www.zm.gov.lv/public/ck/files/ZM/TP%20petijumi/Transtauksk%C4%81bes_p%C4%93t%C4%ABjums.pdf  

Annotation to the Cabinet of Ministers Regulation No.301

http://www.vm.gov.lv/lv/tava_veseliba/kampana_mili_savu_sirdi/

http://www.vm.gov.lv/lv/tava_veseliba/kampana_mili_savu_sirdi/

http://www.vm.gov.lv/images/userfiles/phoebe/aktualitates_aktualitates_augsas_virsdala_ba89d22083b17edac22575a6002bb060/trans_tauki.pdf

http://www.vm.gov.lv/images/userfiles/phoebe/aktualitates_aktualitates_augsas_virsdala_ba89d22083b17edac22575a6002bb060/trans_tauki.pdf

http://www.vm.gov.lv/lv/tava_veseliba/veseligs_uzturs/

http://www.vm.gov.lv/lv/tava_veseliba/veseligs_uzturs/

https://www.spkc.gov.lv/upload/Infografikas/Informativi materiali/infografika_tauki.pdf

https://www.spkc.gov.lv/upload/Infografikas/Informativi%20materiali/infografika_tauki.pdf

http://www.vm.gov.lv/lv/ministrija/seminars_par_sals_un_transtaukskabju_daudzuma_samazinasana_p/

http://www.vm.gov.lv/lv/ministrija/seminars_par_sals_un_transtaukskabju_daudzuma_samazinasana_p/

https://www.spkc.gov.lv/upload/Petijumi un zinojumi/FINBALT/finbalt_2014_labotais.pdf

https://www.spkc.gov.lv/upload/Petijumi%20un%20zinojumi/FINBALT/finbalt_2014_labotais.pdf  

https://www.spkc.gov.lv/upload/Petijumi un zinojumi/FINBALT/finbalt_2016_2.pdf

https://www.spkc.gov.lv/upload/Petijumi%20un%20zinojumi/FINBALT/finbalt_2016_2.pdf  

https://www.spkc.gov.lv/upload/Petijumi un zinojumi/HBSC/uztura_paradumi_kermena_masa_berniem_lv_2007.pdf

https://www.spkc.gov.lv/upload/Petijumi%20un%20zinojumi/HBSC/uztura_paradumi_kermena_masa_berniem_lv_2007.pdf  

https://www.spkc.gov.lv/upload/Petijumi un zinojumi/HBSC/hbsc_2013_2014_aptaujas_rez.pdf

https://www.spkc.gov.lv/upload/Petijumi%20un%20zinojumi/HBSC/hbsc_2013_2014_aptaujas_rez.pdf

http://www.db.lv/razosana/partika/laima-sak-razot-vafeles-bez-transtaukskabem-danu-profesors-atklaj-jaunus-produktus-grekazus-244067

http://www.db.lv/razosana/partika/laima-sak-razot-vafeles-bez-transtaukskabem-danu-profesors-atklaj-jaunus-produktus-grekazus-24406



Netherlands

Policy status

Existing

Proposed/ considered

Legislation

Voluntary measures

X (completed/ended)

Labelling

Consumer information

X

Description of existing measure(s)

Type of measure

Voluntary measure

Description of measure

(if legislation paste exact text of legislation)

Task Force Verantwoorde Vetzuursamenstelling (Task Force for

the Improvement of the Fatty Acid Composition).

Members of this voluntary initative include representative organisations of various relevant industries, and the Dutch Ministry for Public Health, Wellbeing and Sport (Volksgezondheid, Welzijn en Sport) as observer. As members, these industries have committed themselves to a continued improvement of the fatty acid composition of the diet. For public health reasons it is desirable that saturated fatty acids and trans fatty acids in the diet are replaced with (cis) unsaturated fatty acids. All affected sectors have committed themselves to a manifesto, which was offered to the Minister of VWS in 2005. 152

Scope of measure

The measure applied across the various relevant industries (for a specific list, see ‘FBOs covered’), which together represent 80% of the food industry that uses oils and fats. The goals of the measure were as follows:

·The reduction of the amount of trans fatty acids in food so that, in accordance with the guidelines from the Dutch Health Council, a maximum of 1 percent of energy intake originating from trans fatty acids can be achieved;

·The reduction of the amount of saturated fat in food in order to make an important contribution to meeting the Dutch Health Council guideline of a maximum of 10 percent of energy intake originating from saturated fat.

Over the years (from 2003 to 2010) these were to be achieved through the following activities:

·Stimulating innovations.

·Supplying information to the professional user.

·Supplying information to the consumer.

·Monitoring the branches involved in the Task Force. 153

FBOs covered

Algemene Kokswaren en Snackproducenten Vereniging (AKSV: Association of Producers of Cooked product and Meat Snacks):

The AKSV is the branch organization of Dutch industrial companies that produce convenience foods (snacks, cool meals, salads, soups, sandwiches and sandwiches, etc.). Through mailings, members and committee meetings and annual monitoring, companies are encouraged to reduce trans fatty acids and saturated fatty acids in their products. AKSV has been involved and active since the start of the Task Force (2003).

Koninklijk Horeca Nederland (KHN: Royal Hospitality Netherlands): KHN is the branch organization for the catering industry in the Netherlands, with around 20,500 companies being affiliated. KHN has been involved since the start of the Task Force (2003). Together with the Information Office on Margarine, Vetten en Oliën (MVO: Margarine, Fats and Oils), it is running the Responsible Frying campaign, with the aim of stimulating the use of liquid frying fat in the catering industry (2004).

Nederlandse Brood- en Banketbakkers Ondernemers Vereniging (NBOV: Dutch Association for the Craft Bakery Industry):

The NBOV represents 1400 artisan bakeries (bread and confectionery). In January 2008, the NBOV officially joined the Task Force, and in the first year it focused on communicating fats towards its members and performing a baseline measurement.

Productschap Margarine Vetten en Oliën (MVO: Margerine, Fats and Oil Industry Association):

MVO represents the entire chain of vegetable oils and fats, including the producers of consumer margarines, frying fats, bakery margarines and fats and oils for use in foodstuffs. It is the initiator of the Task Force and carries out the secretariat. In addition, MVO together with KHN, promotes the Responsible Frying campaign to stimulate the use of liquid frying fat in the catering industry, and provides information on fat (“Vette Feiten”: "Fat Facts") aimed at the food industry (www.vettefeiten.nl). Information about fats towards consumers is carried out by the MVO and funded by MVO and BNMF.

Bond van Nederlandse Margarine Fabrikanten (BNMF: Dutch Margarine Producers Association): 

BNMF represents the manufacturers of margarine, halvarine and baking products. Information about fats towards consumers is carried out by the MVO and funded by MVO and BNMF.

Vereniging voor de Aardappelverwerkende Industrie (VAVI: Dutch Association for the Potato Processing Industry):

VAVI is the branch organization for Dutch companies of pre-baked, chilled and deep-frozen potato products. The VAVI has been a member of the Task Force since 2003. In addition to activities such as conducting research and communicating recommendations for using better frying fats or less fat for home preparation, among other things, the VAVI has sponsored the Responsible Frying campaign for years. In 2004, 85% of all pre-baked, chilled and deep-frozen potato products came from VAVI companies.

Vereniging voor de Bakkerij- en Zoetwarenindustrie (VBZ: Dutch Association for the Bakery and Sweets Industry) / Nederlandse Vereniging voor de Bakkerij (NVBL Dutch Association for the Bakery Industry): 

These two associations together represent the industrial bakery sector. Bakery and confectionery products include all the products belonging to the banquet / biscuit, chocolate, sugar and related products, such as savoury dry snacks, chips, peanuts and nuts, etc. The NVB represents the Dutch medium and large bakery companies. VBZ and NVB have been involved and active since the start of the Task Force (2003). The main activities of VBZ / NVB have been to encourage its members to improve fatty acid composition. They actively communicate with their members and provide practical tools such as the "Healthy Fats in the Bakery" technology research.  154

Derogations

(e.g. low fat products, local products)

The self-regulation does not apply to ruminant trans fat.  155  

Share of SMEs involved

(in case of voluntary measures)

Exact share is not available, however the NBOV, which specifically provides representation for SMEs, has around 1400 members.  156

Length and characteristics of transition period

The task force ran from 2003 to 2010.  157

Arrangements for measure enforcement and compliance monitoring

The branches involved in the Task Force reported annually on the achieved results.  158

Rate of compliance/ participation and favouring conditions

(in case of voluntary measures)

All partners provided information on results.  159 For trans fats the goal was to reduce the amount of trans fatty acids in food so that in accordance with the guidelines from the Dutch Health Council, a maximum of 1 percent of energy intake originating from trans fatty acids can be achieved. Each partner also had their own goals;

AKSV:

AKSV aimed for a transfatty acid proportion of less than 2% in 2010. IN 2009 the amount of transfat acids as a proportion of total fat used (i.e. not the proportion of fat in the end product but rather the fat used in the process) was 0.7% opposed to 9.7% in 2002: a reduction of 92.8%.

KHN:

KHN aimed for an increase in the use of liquid frying fat from the baseline of 30% in 2005 to 75% in 2010 in the hospitality sector. It provided measurements for 2009, in which the proportion was 78%.

NBOV:

NBOV aim was to limit the amount of trans fat to up to 2% of the total fat content. In addition the reduction in trans fat should not increase the sum of saturated fat and trans fat. The measurement of this included a very small sample of max 10 bakeries. The results were subsequently inconclusive and not representative, but did show a wide variety across different products and bakeries.

NEBAFA:

NEBAFA set a similar aim: to limit the amount of trans fat to up to 2% of the total fat content. In addition the reduction in trans fat should not increase the sum of saturated fat and trans fat. The proportion of trans fat as a share of all fat was 2.8% in 2003 and dropped to 1.7% in 2009.

MVO and BNMF:

MVO and BNMF set less specific goals regarding trans fat (i.e. to reduce the amount of trans fat), and focused more specifically at reducing the use of solid frying fats. It found from measurements that the amount of trans fat as a proportion of all fat was reduced from 3.4% in 2003, to 1.0% in 2008 in bakery margarines. Trans fat for industrial use and for use on bread was already below 1% and has not been measured. Trans fat for baking products was already below 1% and was measured again in 2009 which showed this was still the case. Measurements also showed a reduction in the use of solid frying fats in favour of liquid frying fats, and a reduction of the proportion of trans fats in solid frying fat from 10% in 2003 to 2% in 2009.

VAVI:

VAVI’s goal was to further reduce the amount of trans fat at product level. This dropped from 1.5% in 2003 to 0.8% in 2009. As a lot of the fat content comes from the consumers’ choice of frying fat. An estimate of this has also been added and shows a reduction from 6.4% in 2003 to 1.6% in 2009.

VBZ and NVB:

No explicit goal, but members were monitored on a yearly basis. It shows a reduction of the amount of trans fat as a proportion of the total fat from 20.1% in 2003 to 1% in 2009. There are concerns about the response rate.

Tests used to assess trans fats content

Each partner was responsible for measuring its own progress. 160

AKSV:

Sent out a survey to its members and achieved a response rate of 88.9%. Full methodology was not available but respondents were asked (amongst others?) what type of fat they used and in what volume for either frying (e.g. soy oil; liquid frying oil; lard; palm oil; rapeseed oil; sunflower oil) or as ingredient (e.g. rapeseed oil; palm oil; soy oil; margarine; sunflower oil; ruminant fats; baker’s fat; olive oil; others).

KHN:

N/A (TFA content not available)

NBOV:

Cast studies/site visits were undertaken to collect data on the use of transfat in 6 particular products but the sample of this was too small to be able to make conclusions.

NEBAFA:

TFA content provided, but there is no information on how test was conducted.

MVO and BNMF:

Wageningen University did the testing for the MVO, based on a sample of 14 margarines from craft bakeries. The report (in Dutch), which includes methods, can be found here: http://edepot.wur.nl/161230 It refers to methods used in previous research available here: http://edepot.wur.nl/45471 Of particular interest is Annex 2 (‘Bijlage 2’) on page 52 (in English). 161 It sets out the methodology used. Abstract is as follows:

Trans fatty acids in foods are usually analysed by gas-liquid chromatography (GLC) of fatty acid methyl esters (FAME). However, this method may produce erroneously low values because of insufficient separation between cis and trans isomers. Separation can be optimized by preceding silver-ion thin-layer chromatography (Ag-TLC), but this is laborious. We have developed an efficient method for the separation of 18-carbon trans fatty acid isomers by combining GLC of FAME with GLC of fatty acid 4,4-dimethyloxazoline (DMOX) derivatives. We validated this method against conventional GLC of FAME, with and without preceding Ag-TLC. Fatty acid isomers were identified by comparison with standards, based on retention times and mass spectrometry. Analysis of DMOX derivatives allowed the 13t, 14t, and 15t isomers to be separated from the cis isomers. The combination of the GLC analyses of FAME and DMOX derivatives gave results comparable with those obtained by GLC of FAME after preceding Ag-TLC, while saving about 100 h of manpower per 25 samples. It allowed the identification and quantitation of 11 trans and 8 cis isomers and resulted in 25% higher values for total C18:1trans, compared with the analysis of FAME alone. The combination of DMOX and FAME analyses, as applied to the analysis of 14 foods that contained ruminant fat and partially hydrogenated vegetable and fish oils, indicated that the most common isomers were 11t in ruminant fats, 9t in partially hydrogenated fish fats, and either 9t or 10t in partially hydrogenated vegetable fats. The combination of GLC analyses of FAME and DMOX derivatives of fatty acids improves the quantitation of 18-carbon fatty acid isomers and may replace the laborious and time-consuming Ag-TLC.

Analysis of C18:1 cis and trans fatty acid isomers by the combination of gas-liquid chromatography of 4,4-dimethyloxazoline derivatives and methyl esters (PDF Download Available). Available from: https://www.researchgate.net/publication/257730530_Analysis_of_C181_cis_and_trans_fatty_acid_isomers_by_the_combination_of_gas-liquid_chromatography_of_44-dimethyloxazoline_derivatives_and_methyl_esters [accessed Jun 16, 2017].

VAVI:

No information is available on methods of VAVI’s measurement of trans fat in its member’s end products. The estimated additional trans fat consumed as a result of the consumers’ choice of frying fats was based on data from the MWO.

VBZ and NVB:

Annual survey of members (no further information). Concerns about low response rate.

Steps taken to raise consumer awareness

AKSV:

None

KHN:

In cooperation with the Centre for Nutrition the KHN launches the Snackposter, which enables consumers to make informed choices about their food. The poster shows nutritional values of snacks and the number of minutes of cycling required to burn calories

NBOV:

None

NEBAFA:

None

MVO and BNMF:

In addition to product information on products of margarine manufacturers, the MVO Information Centre provides information on how margarine, halvarine and baking products fit in healthy, contemporary and tasty food. Through campaigns, the Information Office provides information on fats and health and about products with a favourable fatty acid composition. There are various specific examples of campaigns available, focusing on the use of margarine as healthier alternative and the knowledge platform ‘Fat Facts’ (‘Vette Feiten’).  162   163

VAVI:

Various: information on packaging e.g. type of frying oil to use; support of the Responsible Frying campaign.

VBZ and NVB:

None

Guidance provided to affected businesses

AKSV:

Shared information from the Task Force with its members and also fed back the monitoring results. In its internal policies it has also encouraged its members to use fats with lower trans fat proportions.

KHN:

KHN has supported businesses in hospitality through making available various information and support on the use of healthy product. The most important one with regards to trans fats is the ‘Responsible Frying’ campaign during with the KHN and MVO actively engaged with hospitality to promote the use of liquid over solid frying fat.

NBOV:

Dedicated articles in members’ magazine.

NEBAFA:

Communication in professional magazine about trans fat, NEBAFA has also had direct influence on product development at the business level (not clear how).

MVO and BNMF:

The campaign Responsible Frying and a Code of Practice for frying fats in the hospitality sector focused on the reduction of use of solid fats (higher in trans fats) and increase in liquid fats (lower in trans fats).

VAVI:

Coordination of change in use of used ingredients and development of new products.

VBZ and NVB:

VBZ and NVB engaged TNO (Knowledge and Innovation organisation) to run the research project ‘Healthy fats in the bakery’, aimed at supporting members with reducing the proportion of saturated fats. In addition this topic was often discussed at meetings, newsletters, website, etc. Members were also encouraged to participate in a range of other initiatives aimed at promoting healthy food. 164

Effectiveness of the measure

Across almost all partners the measures taken were effective against their targets (for concrete numbers refer back to compliance in which details are provided for pre and post project measurements). 165  

Describe (if any) other measures that are currently being considered

The Task Force has officially come to an end. The initiator, MVO, together with BNMF (now IMACE-NL?) are currently looking at how they can further reduce the use of trans fat in a work programme ending in 2020 called ‘Herformulering productsamenstelling’ (Reformulating product composition). The goal for this project is that as a minimum the average proportion of transfat would stay the same. To achieve this, the action plan for this project focuses on monitoring levels in the sector and working together with other players to gather this information; a continuation of the campaign ‘Responsible Frying’; provide information to consumers, intermediaries and businesses and; work together with health professionals. 166

TFAs in foods and diets

TFAs content in food

(by product, if available please distinguish by trans fats source – iTFA and rTFA, andpartly hydrogenated oil)

See below. This has been extracted from NEVO, an online database, and contains information on trans fat content in many products. The amount of trans fat is presented as a % of all fat in the product and is available broken down by their lipid number: 167

Voedingsstof

EuroFIR component code

Code NEVO voedingsstof

Transvetzuren total

FATRN

3136

C10:1 trans totaal

F10:1TRS

3027

C12:1 trans totaal

F12:1TRS

3055

C14:1 trans totaal

F14:1TRS

3022

C16:1 trans totaal

F16:1TRS

3026

C18:1 trans totaal

F18:1TRS

3031

C18:2 n‐6 trans

F18:2TTN6

3065

C18:3 n‐3 trans

F18:3TTTN3

3131

C20:1 trans totaal

F20:1TRS

3058

C20:2 n‐6 trans

F20:2TT

3133

C22:1 trans totaal

F22:1TRS

3059

C24:1 trans totaal

F24:1TRS

3060

Enkelvoudig onverzadigde vetzuren trans rest

FAMSTXR

3116

More recent data are available from NEVO.  168

Variation in TFAs content in food after implementation of measure 169

Reference (2001)

Most recent (2010)

Difference

Avg g

/100g

SD

Avg g /100g

SD

g/100g

SD

Mashed potatoes

0.0

0.0

0.0

0.0

-0.0

0.0

Potato products for frying

0.4

0.2

0.1

0.1

-0.3

0.2**

Bread, all types

0.1

0.1

0.0

0.1

-0.0

0.1***

Crackers

0.3

0.3

0.3

0.5

-0.1

0.3

Cake and baked goods

0.7

0.9

0.6

0.8

-0.2

0.5**

Cookies and biscuits

1.4

1.4

0.6

1.0

-0.8

1.1***

(Meat) snacks and salads

1.5

1.4

0.9

1.4

-0.6

0.8**

Fats and margarines

1.1

0.8

0.9

0.5

-0.1

0.4

From: Impact of fatty acid food reformulations on intake of Dutch young adults. Elisabeth H.M. TEMME, PhD; Inger L. MILLENAAR, MSc; Gerda VAN DONKERSGOED, MSc; Susanne WESTENBRINK, MSc ; National Institute for Public Health and the Environment (RIVM), the Netherlands

Future projections of TFAs content in food (e.g. a major FBO pledged to reduce trans fats content in own products)

No information found

TFAs intake

(if available please report data by trans fats source – iTFA and rTFA, age and socio-economic group, andpartly hydrogenated oil contribution)

See below

Intake by socio-economic group is not available in this research, but demographic information is collected and published in the National Food Consumption Survey. For example (from 2003): 170

Men

Women

Avg

S.E.

Avg

S.E.

Age

P=0.22

P=0.002

19-24

1.0

0.0

1.0

0.0

25-30

1.0

0.0

1.2

0.0

Family status

P=0.35

P=0.006

Alone

0.9

0.1

1.1

0.1

With partner

1.0

0.0

1.1

0.1

Family with children

1.1

0.1

1.2

0.0

Living with parent(s)

1.0

0.0

1.0

0.0

Education

P=0.66

P=0.99

Low

1.0

0.1

1.1

0.0

Middle

1.0

0.0

1.1

0.0

High

1.0

0.0

1.1

0.0

Alcohol use

P=0.04

P=0.16

No

1.2

0.1

1.2

0.1

Yes, less than 1 glass p/w

1.1

0.1

1.1

0.0

Yes, 1 glass p/w or more

1.0

0.0

1.0

0.0

Smokes

P=0.09

P=0.51

Yes

0.9

0.0

1.1

0.0

No, used to

0.9

0.1

1.0

0.1

No, never

1.1

0.0

1.1

0.0

Activity score

P=0.28

P=0.87

Low

1.0

0.0

1.1

0.0

Middle

1.0

0.0

1.1

0.0

High

0.9

0.0

1.1

0.0

Supplement use

P=0.19

P=0.54

No

1.0

0.0

1.1

0.0

Yes

0.9

0.1

1.1

0.0

Variation in TFAs intake after implementation of measure

From: Impact of fatty acid food reformulations on

intake of Dutch young adults

Elisabeth H.M. TEMME, PhD; Inger L. MILLENAAR, MSc; Gerda VAN DONKERSGOED, MSc;

Susanne WESTENBRINK, MSc

National Institute for Public Health and the Environment (RIVM), the Netherlands

Reference scenario

Reformulation scenario

 

P50 g/day

95% CI g/day

E%

P50

P50 g/day

95% CI g/day

E%

P50

Total fat

85

(82.8-87.2)

34.8

84.5

(81.5-87.0)

34.6

SFA

31.4

(30.6-32.6)

12.9

31.3

(30.4-32.1)

12.8

TFA

2.3

(2.2-2.5)

1

1.9

(1.8-2.0)

0.8

MUFA

27.5

(26.6-28.2)

11.3

28.3

(27.5-29.4)

11.6

PUFA

17.2

(16.5-18.0)

7.1

16.1

(15.5-16.7)

6.6

SFA: saturated fatty acids,

TFA: trans fatty acids,

MUFA: monounsaturated fatty acids,

PUFA: polyunsaturated fatty acids.

Newer data are available. Data above are based on the RIVM (Rijksinstituut voor Volksgezondheid en Milieu: State Institute for Public Health and Environment) National Food Consumption Survey 2003. The latest available version is for 2012-2016, although more detailed publications based on this data are not yet available.

Information on national consumer awareness of TFAs issues (e.g. terminology, impact of food choice)

There is data on consumers' knowledge and perceived healthfulness of PHVO and FHVO but it is limited to a single population group (women aged 25-65 y, responsible for household shopping). The results showed that consumers have low awareness of FHVO and found them less appealing and far less required in margarine than vegetable oils and fats. In 2003 a study by the National Nutrition Centre (n=500) revealed that 93% had never heard of TFA. Could not find a source on this other than the EC consultation. 171

Measure impacts

Business responses and costs

Number of business that reformulated their products

(if possible differentiate by large and small companies)

No information found

Evidence of FBO sector facing specific challenges

·Foods serving food based on ruminant meat (out of scope?)

·Many artisan bakeries fail to use healthier alternatives to dairy butter which has high contents of naturally occurring trans fat (out of scope?)

·For bread and cakes etc producers reformulation of products in practice has proven to be difficult because the consumer has a certain expectation of the product. Many banquet and cake products are traditional products. In practice it turns out that a change in fatty acid composition has consequences for the sensory properties of the product which go against the expectation of the consumer.

·Bread, cake etc producers worries about not being able to convey the improvement of lower amounts of trans fats on product labelling (as determined by EC/1924/2006), and therefore being unable to make a return on the investment.  172

From the bakery industry, a combination of regulation pressure (notably the early adoption of the Danish legislation on trans-fatty acids implemented since January 2004) and demands from large customers (supermarkets and producers of bakery products within the Netherlands and in EU) urged a switch in the food industry from partially hydrogenated oil with high levels of iTFA to fully hydrogenated oil with a iTFA content below 2 per cent. Fully hydrogenated oil, although having a iTFA content of less than / equal to 1 percent, remains solid at room temperature, a characteristic which is undesirable in the bakery industry where a soft texture at room temperature is a prerequisite for processing. This meant that bakery suppliers needed to come up with a solution and began to adjust their products so that they would keep their soft texture while containing fully hydrogenated oil. In the Netherlands, this is generally palm oil and is mainly supplied by ADM and Cargill.

According to an interview with one bakery supplier, they began this process in 2003 and ended in 2007. This ran parallel to similar projects executed by other large bakery ingredient producers. Although the research results were not exchanged amongst these parties, overall progress was reported to the Dutch Association of Manufacturers of Bakery Ingredients (NEBAFA, De Vereniging van Nederlandse Fabrikanten van Bakkerijgrondstoffen).

For which oils/fats was there a reduction in use and with what were they replaced?

Solid frying fat replaced with liquid frying fat

For the bakery sector, there was a switch to fully hydrogenised oil, and research was devoted to securing the correct consistency of products at room temperature.

For this purpose, two strategies were applied:

(a) Reformulation of the product recipes containing fully hydrogenized oil, notably by adding and altering emulsifiers (Monoglycerides; and Calcium Stearoyl Lactylates, CSL);

(b) Adjusting the processing of the products (bread improvers, bread and pastry mixes) by heating them to 80 – 90 degrees Celsius and then applying a rapid cooling process (minus 20 degrees Celsius) back to room temperature. This process forces the molecules to form a weaker crystal structure so that the product cannot regain its previous solid texture.

Costs of changes in products and processes

(if possible differentiate by type of cost and include figures)

Evidence from bakery supplier indicated about 2 to 3 percent price increase of bread improvers, bread and pastry mixes. About 1 to 1.5 man-years (Academic or Higher Vocational Education level), costing rou 120-150k Euros.

Cost of understanding/learning the measure for FBOs

No information found

Consumer prices and choice

Evidence of changes in the price of reformulated products

According to a bakery supplier, the impact for the baked goods sector was negligible, as bread improvers, bread and pastry mixes represent 2 to 3 percent of the value of the end product (e.g. a bread).

Evidence of price differences between products with iTFAs and alternatives 173

Research from the Vrije Universiteit Amsterdam found a significant negative relationship between the cost of food and its energy density/ saturated fat/ trans fat/ total fat/ carbohydrates. In addition, there was a significant positive relationship between the costs and the percentage of beneficial products in the diet.

Evidence of changes in the range, quality or taste of products available

Not located, but the goal of the Task Force was to lower trans and saturated fats without changing the quality of the product.

Evidence of changes in TFAs consumption

As previously mentioned:

From: Impact of fatty acid food reformulations on intake of Dutch young adults

Elisabeth H.M. TEMME, PhD; Inger L. MILLENAAR, MSc; Gerda VAN DONKERSGOED, MSc; Susanne WESTENBRINK, MSc

National Institute for Public Health and the Environment (RIVM), the Netherlands

Reference scenario

Reformulation scenario

 

P50 g/day

95% CI g/day

E%

P50

P50 g/day

95% CI g/day

E%

P50

Total fat

85

(82.8-87.2)

34.8

84.5

(81.5-87.0)

34.6

SFA

31.4

(30.6-32.6)

12.9

31.3

(30.4-32.1)

12.8

TFA

2.3

(2.2-2.5)

1

1.9

(1.8-2.0)

0.8

MUFA

27.5

(26.6-28.2)

11.3

28.3

(27.5-29.4)

11.6

PUFA

17.2

(16.5-18.0)

7.1

16.1

(15.5-16.7)

6.6

SFA: saturated fatty acids,

TFA: trans fatty acids,

MUFA: monounsaturated fatty acids,

PUFA: polyunsaturated fatty acids.

Data above is based on the RIVM (Rijksinstituut voor Volksgezondheid en Milieu: State Institute for Public Health and Environment) National Food Consumption Survey 2003. The latest available version is for 2012-2016 though more detailed publications based on this data is not yet available. 174  

Effect on consumer information and awareness 175

The MVO found that a combination of investment of the industry and consumer awareness had led to an increase in the proportion of liquid margarine and baking and bread products (lower % of trans fat) relative to the fixed variants (higher % of trans fat). The share of liquid margarine and baking and baking products on the Dutch market doubled between 2003 and 2009 from 22% to 44%.

Health effects

Evidence of benefits on consumer health

(if possible differentiate by age and socio-economic group)

The below table details death rates by cardiovascular disease. 176

 

2011

2012

2013

2014

M Total

18,115

18,211

18,231

17,830

M Younger than 25

42

32

22

25

M 25-49

648

566

502

477

M 50-64

2,362

2,293

2,202

2,026

M 65 and older

15,057

15,313

15,501

15,299

F Total

20,335

20,412

20,531

20,257

F Younger than 25

16

18

20

21

F 25-49

313

291

257

238

F 50-64

1,013

1,040

904

903

F 65 and older

18,989

19,060

19,348

19,094

Total

38,460

38,628

38,767

38,092

See also

Evidence of change in saturated fats intake

Please see above in the table on ‘Evidence of changes in TFAs consumption’ the amount of saturated fat (Saturated fatty acids). It has been an explicit goal of the Task Force to not decrease the % of trans fat at the cost of an increase in saturated fats.

Competition, innovation and trade

Effect on competition in the domestic market

No information found

Changes in trade of affected goods

No information found

Effect on innovation among suppliers (i.e. reformulation and/or changes in production processes)

Part of the mandate of the task force was to examine the reformulation of products. The end report of the task force mentions an increase in healthier liquid frying alternatives as opposed to solid frying fats. Innovation was found to be particularly difficult in bakeries producing sweets (cakes, cookies). The end report specifically mentions a project with Innovation and knowledge company ‘TNO’ on ‘Gezonde vetzuren in de bakkerij’ (Healthy fatty acids in the bakery) but a report is not available.

The evidence provided of change in trans fats amount in food also points to changes in production processes (but no information on the cost of this).

Administrative burdens

Number of businesses required to provide information

No information found

Evidence of economic burden associated with compliance for FBOs

(obtain cost data if possible)

No information found

Evidence of authorities' effort to enforce/monitor measure

(obtain cost data if possible)

No enforcement (voluntary), but the RIVM produces and keeps up to date a database with information nutritional values (including TFAs) called NEVO. 177 However, NEVO depends on other parties to supply information. NEVO does set certain criteria for information to be included. 178

Environmental impacts

Evidence of any environmental costs or benefits

No information found

Evidence of increase in demand for palm oil / other ingredients

The Netherlands is the largest importer of palm oil in the EU. 179 After a small increase from 2011 to 2012, there has been a slow but steady decline in the total use of palm oil in the ‘food’ and ‘feed’ industry from 385.000 kg in 2011 to 279.804 in 2015, and a much larger increase in use of sustainable palm oil as a proportion of the total amount of palm oil. 180

Effects on deforestation resulting from variation in demand of ingredients

(e.g. palm oil, soy)

No information found


Poland

Policy status

Existing

Proposed/ considered

Legislation

Voluntary measures

X

Labelling

Consumer information

X

Description of existing measure(s)

Type of measure

Voluntary measure

Description of measure

(if legislation paste exact text of legislation)

Self-regulation

It is motivated by knowledge of the adverse impact of trans fats on human health; prevalence of trans fats in different types of Polish foods (according to results from monitoring of trans fats levels in foodstuffs); producer awareness of TFA; it is about an encouragement to reduce or eliminate the trans fats content in food products. 181  

There are no legal obligations for producers in Poland – only an industry initiative to reduce levels. 182 The Ministry Of Health Ordinance from 19/06/2012 sets the Food and Nutrition Institute as a reference laboratory for Poland. 183 The National Health Programme introduced in 2017 assigns the Food and Nutrition Institute with the task of monitoring the trans fats content in selected products and to create and maintain a database of trans fats levels in food products for the years 2017 - 2020. 184  

Scope of measure

All products potentially containing TFA.

FBOs covered

All FBOs

Derogations

(e.g. low fat products, local products)

N/A

Share of SMEs involved

(in case of voluntary measures)

100% potentially covered; industry representatives claim that most companies are aware of issues related to trans fats and take action; 185 no hard data is available to verify de facto participation.

Length and characteristics of transition period

N/A

Arrangements for measure enforcement and compliance monitoring

Enforcement not applicable as no legal measures are in place. No information was located on existence of any compliance monitoring – it appears that no such system exists at the level of the whole food sector. However, company-specific measures are in place (e.g. Unilever, Nestle, Sante).

Rate of compliance/ participation and favouring conditions

(in case of voluntary measures)

Industry representatives claim that most companies are aware of issues related to trans fats and take action; 186 no hard data is available to verify de facto participation.

Tests used to assess trans fats content

Rancimat test 187

Fatty acids converted into FAMEs their methyl esters according to ISO standard method [ISO 5509:2000a].

Gas chromatography of the FAMEs was performed according to ISO standard [ISO 5508:2000b]. 188

Steps taken to raise consumer awareness

There are several initiatives aiming to raise consumer awareness.

Producers campaigns:

The Polish Federation of Food Industry (PFPZ) runs a campaign Good fats, (PL: Dobre tłuszcze, http://dobretluszcze.pl/ ) with a special subsection of the campaign website focusing on TFA:

http://dobretluszcze.pl/unikaj-tluszczow-trans  

In late 2015, ZT Kruszwica (the largest PL producers of vegetable fats) in partnership with the National Food and Nutrition Institute initiated a campaign Get to know fats (PL: Poznaj sie na tłuszczach) https://poznajsienatluszczach.pl/ .. In 2017, this campaign received a golden award in Power of Content Marketing Awards – Szpalty Roku 2017 in the category „Content Marketing – FMCG”.

Other similar initiatives initiated by individual producers or groups of food producers include the campaigns on margarines, 189 rapeseed oil, 190  

and an initiative created together with The Chief Sanitary Inspectorate. 191

Some producers take part in the international program Choices introduced by Unilever. The Choices Programme in Poland started in 2008 under the name I know what I choose. The Choices logo can be placed on foods and drinks indicating that the products meet qualifying criteria with respect to trans fatty acids, saturated fat, salt and sugar content. 192 More than 100 products received the Choices mark in Poland by 2011. 193 In the same year it run an outdoor marketing campaign to promote the programme, participating firms and products. The programme does not appear to be active at present.

Guidance provided to affected businesses

Sector or product-specific guidance only, e.g. by the European Margarine Association (IMACE).

Effectiveness of the measure

Falling average trans fats content in some products and intake and increasing number of firms undertaking measures and/or launching campaigns promoting their products as heathy suggests that the measure is to some extent effective.

Similarly, information campaigns may have some impact on rising consumer awareness but no comparable data was identified. Anecdotal evidence, such as the opinion of Beata Michalik (director at Z.T. Bielmar, large producer of vegetable fats) in an interview with food industry portal portalspozywczy.pl suggests that consumers are increasingly able to make a distinction between various fats and their health benefits and risks. 194  

Describe (if any) other measures that are currently being considered

Not identified

TFAs in foods and diets

 TFAs content in food

(by product, if available please distinguish by trans fats source – iTFA and rTFA, andpartly hydrogenated oil)

A Nationwide Monitoring of the trans fats content in alimentary products in Poland has been in place since 2004. Every year food samples from different groups are checked with regard to the trans fats content. The results from the monitoring are not publicly available and it is not clear what data have been collected so far. The data have not been shared in response to ICF’s request related to this project. Publicly available data comes from different studies covering different sets of products and not necessarily applying the same methodology. The identified results are as follows (organised by the year of a study):

2016:

(TFA per total weight of product)

·Butter: 1.98-3.01%

·Mixed spreads (butter and vegetable oils): 0.17-9.32%

·Margarines (hard): 0.33-22.15%

·Margarines (soft): 0.13-1.11% 195

2013:

·TFA levels of infant and follow up formula: 0.16%wt/wt (Note: it is unclear from the source whether %wt/wt refers to %TFA per total fat or per total weight of product)

·Follow-up formulas (for children): 0.15%wt/wt

·Gluten-free food products (31): 2.34%wt/wt

2012:

·Chocolate confectionary (31): 2.13%wt/wt

·Another 2012 study focused on margarines found that the content of trans fats was in the range 0-7.9% for tub and 0-10.9% for stick products. 58% of tub margarines contained below 0.7% TFA. 196 (Note: unclear whether g TFA/100 g refers to g total fat or g product)

2010:

·Packed cakes sold as ready to eat (32): 1.19%wt/wt

·Among a varied group of products (mostly sweets) analysed in 2009/2010: High heterogeneity of trans fats content was found in fat extracted from the products (in short-crust biscuits it ranged from 0.3 to 24.8 g TFA/100 g fat) The highest mean content of trans fats where found in wafers (1.94 g TFA/100 g of the product). 197

2008:

Frying fats (64): 1.1%wt/wt

Including:

·Frying fats from fast food restaurants (32): 1.56%wt/wt

·Frying fats from other restaurants and outlets (32): 0.59%wt/wt

·Liquid frying fats (35): 0.39%wt/wt

·Hard frying fats (29): 1.97%wt/wt

2006:

·Kebab (13): 0.55%wt/wt

·French fries (17): 11.31%wt/wt

·Pizza (13): 1.42%wt/wt

·Hamburgers (15): 0.55%wt/wt

Year unknown:

In potato chips manufactured in Poland, the analysis showed low levels – usually below 0.1 g/100 g fried base or final product, max 0.2 g/100 g of the final product. 198

Variation in TFAs content in food after implementation of measure

A reduction of trans fats content of the frying fats was noted from 1997 to 2008. It was found that an average trans fats content in frying fats sold in Poland in 1997 was 21.4% (ranging from 0.4 to 57.6%), while in 2008 it was significantly lower and reached 12.2% (ranging from 0 to 54%). 199 The sum of trans fats and saturated fat also declined significantly: from 61.1% in 1997 to and 50.4% in 2008. About 33% of fats analysed in 1997 and about 46% in 2008 were characterised by very small trans fats contents (below 1%). trans fats levels of infant and follow up formula remained broadly stable during 2006-2013. 200

Some company specific information is available: PHVO have been replaced in breakfast cereals and in all products based on breakfast cereals (cereal bars) produced by Toruń Pacific Sp. z o.o. The company uses non-hydrogenated vegetable oils. The monitoring results show that trans fats content is low (below 0.2%).

 

By 2013 all Nestlé products in Poland have been reformulated according to the Company Policy (CO) on trans fats levels (e.g. bars, ice-cream, culinary products, wafers). Non-hydrogenated fats and partly hydrogenated fats have been used which had specific fatty acid profile with trans fats levels in line with the CO requirements.

Future projections of TFAs content in food (e.g. a major FBO pledged to reduce trans fats content in own products)

No information found.

TFAs intake

(if available please report data by trans fats source – iTFA and rTFA, age and socio-economic group, andpartly hydrogenated oil contribution)

In 2009/2010 relatively low level of average intake of trans fats in Poland was reported (approximately 1 E%). 201

Main sources of trans fats (rTFA/iTFA):

·butter consumption, which contributed 0.359g rTFA/person/day.

·products of animal origin (rTFA) were estimated to provide 0.496 g TFA/person/day.

Significantly higher consumption of trans fats was found in the case of:

·Products containing fats of industrial origin: 1.5 g iTFA/person/day)

·Margarines and other vegetable fats: 0.988 g iTFA/person/day

·Potato products (N/A)

An estimate concerning 2010: trans fats consumption (E%) males ≤ 20 years old 1.2 (1.0-1.3) and females 1.2 (1.0-1.4). 202

For the purpose of the model constructed in Martin-Saborido et al. 2016 study it was estimated that the products of natural origin (rTFA) provided 0.496 g/person of trans fats per day, and those of industrial origin about 1.5 g (iTFA). 203  

Variation in TFAs intake after implementation of measure

The daily intake of trans fats decreased from about 14g per person/day in 1995 to about 2 g per person/day in 2010. Most of the reduction occurred between 1995 and 1999. 204  

Information on national consumer awareness of TFAs issues (e.g. terminology, impact of food choice)

Of 600 Polish people (>18 y) interviewed as part of a five country survey in 2005, 65% did not know what trans fats were and below 50% mentioned that food labelling should include information on trans fats (survey conducted on behalf of the European Consumer Organisation – BEUC).

From a multi-country student survey carried out in 2012, "most of the students had heard the term ‘trans fats’ before and were aware of their negative influence on human health. Some of the students could not indicate all of the products constituting a potential source of trans fats (around 30%). Polish students were not aware of natural sources of trans fats (less than 10%). Polish students from studies not related to food and nutrition sciences had less knowledge in the topic of trans fats than respondents in the USA and Canada."

At the Warsaw University of Life Sciences (SGGW) more than two thirds of the students answered that TFAs have an adverse effect on human health. Most of the Polish students correctly indicated as the main source of TFAs 3 groups of products: shortening, hard margarines and pastry products. The other correct answers related to natural sources of trans fatty acids (milk fat and dairy products) were selected much more often (30% more) by the students from Wageningen University than from SGGW. 205

Information campaigns may have some impact on rising consumer awareness but no comparable data was identified. Anecdotal evidence, such as the opinion of Beata Michalik (director at Z.T. Bielmar, large producer of vegetable fats) in an interview with food industry portal portalspozywczy.pl suggests that consumers are increasingly able to make a distinction between various fats and their health benefits and risks. 206

The Polish Federation of Food Industry (PFPZ) indicates that rules stemming from the Regulation (EU) No 1169/2011 of the European Parliament and of the Council of 25 October 2011 on the provision of food information to consumers are not conducive to helping consumer make informed decisions on trans fats content in food, This is because the labelling rules can be confusing and consumers do not understand the difference between partially and fully hydrogenated oils. 207

The Food and Nutrition Institute sets the “Nutrition standards for Polish Population” where it is expressed that the trans fats intake should be as low as possible. 208 The Food and Nutrition Institute plans to update the nutrition standards in 2017. The Food and Nutrition Institute intensify its education activities mainly through the newly (beginning of 2017) established National Centre for Nutrition Education that is to organise conferences targeted to FBOs.

Measure impacts

Business responses and costs

Number of business that reformulated their products

(if possible differentiate by large and small companies)

Unknown; information available on some large producers (especially multinational companies that changed their company policies)

Evidence of FBO sector facing specific challenges

No evidence of specific sectors facing challenges

For which oils/fats was there a reduction in use and with what were they replaced?

Only anecdotal evidence available from specific companies, e.g. Toruń Pacific Sp. z o.o replaced PHVO in breakfast cereals and in all products based on breakfast cereals (cereal bars) with non-hydrogenated vegetable oils.

Nestlé Poland reformulated its products switching to non-hydrogenated fats and partly hydrogenated fats have been used which had specific fatty acid profile with trans fats levels in line with the Company Policy requirements.

Costs of changes in products and processes

(if possible differentiate by type of cost and include figures)

No summary data identified. Prices of margarine (CP01152) that are provided by Eurostat for the last 3 years show strong stability, in contrast to butter prices (CP01151) which were very volatile. While the short period of data availability does not allow for drawing any conclusions on the possible impact of actions limiting the trans-fat content, the overall stability of margarine prices relative to the prices of butter suggest that if there is any cost impact of changes in the margarine formulae it is unlikely to be important in cost competition for consumer preferences.

The Polish Federation of Food Industry (PFPZ) was not able to provide specific estimates. The situation likely differs between producers depending on the product characteristics, used machinery, etc. For some SMEs costs can be a barrier. The risks of acceptance of modified products by consumers was also highlighted (e.g. due to different taste). 209  

Cost of understanding/learning the measure for FBOs

See above

Consumer prices and choice

Evidence of changes in the price of reformulated products

No firm-level data were identified to assess the impact of product changes on costs. Between 2004 and 2017 (the maximum period of Eurostat data availability) the consumer prices of a broad category "oils and fats" (CP01115 in the COICOP mnemonics of Eurostat) in Poland increased slower than in the EU28, whereas for the total of "food" (CP011) prices inflation in Poland was higher than in the EU. Also in the case of the category "Sugar, jam, honey, chocolate and confectionery" (CP0118) inflation in Poland was slower than in the EU28. This may partly reflect the fact that improvements in product formulae were not associated with any significant increases of consumer prices, but it is very difficult to draw any strong conclusions given multitude of factors affecting prices. Prices of margarine (CP01152) are only available for the last 3 years and the show strong stability, in contrast to butter prices (CP01151) which were very volatile. While the short period of data availability does not allow for drawing any conclusions on the possible impact of actions limiting the trans-fat content, the overall stability of margarine prices relative to the prices of butter suggest that if there is any cost impact of changes in the margarine formulae it is unlikely to be important in cost competition for consumer preferences.

Evidence of price differences between products with iTFAs and alternatives

Not identified

Evidence of changes in the range, quality or taste of products available

Only firm-specific information available

Evidence of changes in TFAs consumption

The daily intake of trans fats decreased from about 14g per person/day in 1995 to about 2 g per person/day in 2010. 210

Effect on consumer information and awareness

Information campaigns (see above for examples) may have some impact on rising consumer awareness but no comparable data was identified. Anecdotal evidence, such as the opinion of Beata Michalik (director at Z.T. Bielmar, large producer of vegetable fats) in an interview with food industry portal portalspozywczy.pl suggests that consumers are increasingly able to make a distinction between various fats and their health benefits and risks. 211

Health effects

Evidence of benefits on consumer health

(if possible differentiate by age and socio-economic group)

No direct estimate identified. Indirectly it can be to some extent approximated by the evolution of the share of deaths due to Ischaemic heart diseases in total deaths (Eurostat data – series [hlth_cd_aro). Between 2011 and 2014 the share of such deaths in PL decreased from 12% to 10%. This is a slightly faster decrease (and from a lower level) than in the EU28 (from 14% to 13%). However, the observed changes likely result from a multitude of factors, and the direct implications of possible changes in trans fats intake cannot be separated.

In general the consumption of fats rose in Poland from 23.6 kg per capita in 1995 to 33.5 kg per capita in 2015 but the share of animal fats consumption decreased from 16 kg in 1995 to 10 kg in 2015 whereas the consumption of vegetable fats rose from 7.5 to 23.4 kg in 2015. 212

Evidence of change in saturated fats intake

No evidence of changes over time. The daily intake of saturated fat per person in 2015 was about 52.2 g. 213 saturated fat contributes to about 11.6 %E. 214 No comparison with past data was available.

Competition, innovation and trade

Effect on competition in the domestic market

Not identified – anecdotal evidence suggests no major impact; promoting healthy aspects of foods is a common strategy in the highly competitive food market in Poland. The overall stability of margarine prices relative to the prices of butter suggests that if there is any cost impact of changes in the margarine formulae it is unlikely to be important in cost competition for consumer preferences.

Changes in trade of affected goods

According to the Central Statistical Office data domestic market supply of margarine fluctuated over the years but remained broadly stable over the last decade (change from 329 thousand tonnes in 2005 to 315 thousand tonnes in 2010 and 320 thousand tonnes in 2015). 215

Effect on innovation among suppliers (i.e. reformulation and/or changes in production processes)

Suppliers did take decisions to reformulate products. Broader impact on innovation at the company level was not identified.

Administrative burdens

Number of businesses required to provide information

Not applicable;

Individual companies may impose requirements on their suppliers – data not available

Evidence of economic burden associated with compliance for FBOs

(obtain cost data if possible)

Not identified. Likely negligible given the character of the measures.

Evidence of authorities' effort to enforce/monitor measure

(obtain cost data if possible)

N/A

Environmental impacts

Evidence of any environmental costs or benefits

N/A

Evidence of increase in demand for palm oil / other ingredients

Palm oil imports to Poland were on the increasing trend until 2011 and since then appear to have stabilised. Cocoa oil imports to Poland were increasing until around 2010 and have stabilised since then. 216

Effects on deforestation resulting from variation in demand of ingredients

(e.g. palm oil, soy)

Not identified at the country level – expected to be negligible.

Additional references

Other sources:

Jasińska-Melon E., Mojska H.: Zawartość izomerów trans kwasów tłuszczowych w ciastach gotowych do spożycia dostępnych w Polsce. Żyw. Człow. Metab. 2015, 42 (3), 143-155

Mojska H., Gielecińska I., Balas J., Pawlicka M., Szponar L.: Trans fatty acids in foods in Poland: monitoring study. Żyw. Człow. Metab., 2006, 33 (2); 107-122

Mojska H., Jasińska E., Żukowska K.: Zawartość izomerów trans kwasów tłuszczowych w tłuszczach smażalniczych w Polsce. Żyw. Człow. Metab. 2011, 38 (4); 245-255

National Health Programme, Ministry of Health, 2017 http://www.mz.gov.pl/en/health-and-prevention/national-health-programme/

K. Okręglicka, H Mojska, A. Jarosz, M. Jarosz. Fatty acid composition including trans isoforms in selected food fats available on Polish market. Żyw. Człow. Metab. 2017, 44 (1), 10-13.

Onacik-Gür S et all, Sources of trans fatty acids on the Polish market. Probl Hig Epidemiol 2014, 95(1): p. 120-124 https://www.researchgate.net/publication/283087677_Zrodla_izomerow_trans_kwasow_tluszczowych_na_polskim_rynku

Product Criteria for Poland, Choices International Foundation, 2013, Ver. 2.5 https://www.choicesprogramme.org/public/criteria/choices_product_criteria_v2-5_poland_130201.pdf

Report from Workshop on ‘Trans Fats’ held at the European Parliament in Brussels on 5 Nov. 2013 http://www.europarl.europa.eu/RegData/etudes/workshop/join/2014/518744/IPOL-ENVI_AT(2014)518744_EN.pdf

Rosiak, 2016, The Consumption of Fats in Poland and the European Union in The Problems of World Agriculture. http://www.wne.sggw.pl/czasopisma/pdf/PRS_2016_T16(31)_z2.pdf p. 279

Spożycie tłuszczów na świecie – przegląd badań z 40 krajów, 2014 http://www.pokochajolejrzepakowy.eu/spozycie-tluszczow-na-swiecie-przeglad-badan-z-40-krajow/



Switzerland

Policy status

Existing

Proposed/ considered

Legislation

X

Voluntary measures

Labelling

Consumer information

Description of existing measure(s)

Type of measure

Legislation

Description of measure

(if legislation paste exact text of legislation)

[817.022.105] “Decree of the Federal Home Office (Verordnung des EDI ueber Speiseoel, Speisefett und daraus hergestellte Erzeugnisse) concerning edible oils and fats and all products contained therein” 217  setting the limit on trans fats in oils and fats at 2%.

The above decree was abrogated in May 2017, however relevant elements were incorporated into “[817.022.108] “Decree of the Federal Home Office on foodstuffs of vegetable origin, mushrooms and edible salt (ODOV)” 218 , including that the sum of trans fats (cooking oil and cooking fat) has to be limited to 2 grams per 100 grams.

Scope of measure

(Legislative):Federal (national level)

Applies only to vegetable oils and fats derived from seeds, spores or fruits:

·Vegetable oils are defined as cold pressed, cold washed, virgin, extra-virgin, natural or non-refined;

·Olive oils and olive pomace oils are defined as extra virgin olive oil, refined olive oil, olive oil containing refined olive oil and extra virgin olive oil, crude olive pomace oil, refined olive pomace oil, and olive pomace oil; and

·Spreadable fats

An amendment to the previous (2005) law seemed to set the limit at 1% for certain oils and fats (i.e. those extracted from krill, the microalga “Schizochytrium” and those with high levels of eicosapentaenoic acid). 219

The provisions concerning the regulation on novel oils contained in the Decree concerning edible oils and fats and all products contained therein were introduced into the novel food regulation (Article 6 (1) (a) and Annex 1). The oils which were placed on the market in accordance with Regulations (EU) No 258/97 and (EU) No 2015/2283 are also commercially viable in Switzerland (with the exception of genetically modified food). The maximum level of 1% for trans fats in certain fats and oils therefore continues to apply.

FBOs covered

Food regulations concerns production, treatment, storage, transport and placing of food on the market (Article 2 of the Federal Law on Food and Consumer Goods (LMG, SR 817.0)). The regulation therefore applies in principle to all foodstuffs which are placed on the market.

Derogations

(e.g. low fat products, local products)

The Decree on foodstuffs of vegetable origin, mushrooms and edible salt applies to vegetable cooking oils and cooking fats as well as to mixtures of vegetable oils and animal fats, but not for animal fats. The latter are regulated in the regulation on foodstuffs of animal origin (VLtH, SR 817.022.108).

Share of SMEs involved

(in case of voluntary measures)

No data available

Length and characteristics of transition period

There was a transition period under the original law from 2005 whereby the foodstuffs to which the decree applied could be imported, produced and characterised according to the previous legislation up to 31 December 2007. They could be sold until stocks were exhausted.

Arrangements for measure enforcement and compliance monitoring

Any person who manufactures, handles, stores, transports, sells, imports or exports food is obliged to implement a self-control system in accordance with Article 26 of the LMG and must ensure that the legal requirements are complied with.

The enforcement authorities monitor the compliance with the provisions on foodstuffs and the implementation of a self-control system (Art. 30 LMG). The regulation on the enforcement of food legislation (LMVV, SR 817.042) regulates the official control of foodstuffs

Rate of compliance/ participation and favouring conditions

(in case of voluntary measures)

Before entry into force of the legislation, Migros and COOP imposed a 2% limit on their products.

Tests used to assess trans fats content

Not specified in legislation

Steps taken to raise consumer awareness

The new Swiss Nutrition policy does not mention trans fats, because the limits on trans fats are regulated. Nevertheless, reformulation and innovation of products (less sugar, less salt and better fat quality) are one of the priorities in Swiss nutrition policy.

Guidance provided to affected businesses

No guidance provided

Effectiveness of the measure

No information found.

Describe (if any) other measures that are currently being considered

No information found.

TFAs in foods and diets

TFAs content in food

(by product, if available please distinguish by trans fats source – iTFA and rTFA, andpartly hydrogenated oil)

Pre law (2009): A study found that trans fats levels were higher than 2%. 220  

Variation in TFAs content in food after implementation of measure

According to a nutritional bulletin by the Federal Office for Food Safety, thanks to the regulation limiting transfats to 2%, there are considerably lower amounts in food in Switzerland.

Future projections of TFAs content in food (e.g. a major FBO pledged to reduce trans fats content in own products)

Required by law to be capped at 2% - no reforms foreseen.

TFAs intake

(if available please report data by trans fats source – iTFA and rTFA, age and socio-economic group, andpartly hydrogenated oil contribution)

No specific information on trans fats intake, just on diet more generally (so how much fruit/veg are consumed, etc.)

Variation in TFAs intake after implementation of measure

As above.

Information on national consumer awareness of TFAs issues (e.g. terminology, impact of food choice)

Interviews undertaken in 2011 by LINK on behalf of COOP (based on a sample of 506 people) demonstrated low knowledge of transfats as well as little preoccupation therewith. 221 Transfats bore very little impact on the interviewees’ purchasing choices.

Measure impacts

Business responses and costs

Number of business that reformulated their products

(if possible differentiate by large and small companies)

No information found.

Evidence of FBO sector facing specific challenges

No information found.

For which oils/fats was there a reduction in use and with what were they replaced?

According to a newspaper article, McDonald’s now uses rapeseed oil in order to remain within the 2% boundary.

Costs of changes in products and processes

(if possible differentiate by type of cost and include figures)

No information found.

Cost of understanding/learning the measure for FBOs

No information found.

Consumer prices and choice

Evidence of changes in the price of reformulated products

A price increase was not observed. However, no evidence-based studies have been carried out.

Evidence of price differences between products with iTFAs and alternatives

No information found.

Evidence of changes in the range, quality or taste of products available

No information found.

Evidence of changes in TFAs consumption

No information found.

Effect on consumer information and awareness

No information found.

Health effects

Evidence of benefits on consumer health

(if possible differentiate by age and socio-economic group)

No information found.

Evidence of change in saturated fats intake

No information found.

Competition, innovation and trade

Effect on competition in the domestic market

No information found.

Changes in trade of affected goods

No information found.

Effect on innovation among suppliers (i.e. reformulation and/or changes in production processes)

No information found.

Administrative burdens

Number of businesses required to provide information

Does not apply. Decree applies to all.

Evidence of economic burden associated with compliance for FBOs

(obtain cost data if possible)

No information found.

Evidence of authorities' effort to enforce/monitor measure

(obtain cost data if possible)

Controls are carried out by relevant authorities based on risk assessments.

Environmental impacts

Evidence of any environmental costs or benefits

No information found.

Evidence of increase in demand for palm oil / other ingredients

No information found.

Effects on deforestation resulting from variation in demand of ingredients

(e.g. palm oil, soy)

No information found.



United Kingdom

Policy status

Existing

Proposed/ considered

Legislation

Voluntary measures

X

Labelling

Consumer information

Description of existing measure(s)

Type of measure

Voluntary measure

Description of measure

(if legislation paste exact text of legislation)

Voluntary measure – self-regulation and dietary recommendation

1. “Update on trans fats and health – Position statement by the Scientific

Advisory Committee on Nutrition" 222

2. England: Public Health Responsibility Deal Food Network: Pledges

F3(a) on not using ingredients that contain TFAs and F3(b) on removing artificial trans fats from products within 12 months, as well as guidance for small businesses. 223

3. “Revised Dietary Goals for Scotland” include a goal for the average intake of trans fats to remain below 1 E%. 224   225

Scope of measure

1. In its report on the "Nutritional Aspects of Cardiovascular Disease (1994)", the Committee on the Medical Aspects for Cardiovascular Disease (COMA) concluded that there was sufficient evidence for an association between trans fats intakes and CHD, and for adverse effects on circulating lipoprotein concentrations, to recommend that the average population intake of trans fats should not exceed 2% food energy. This recommendation was endorsed by the Scientific Advisory Committee on Nutrition in 2007.

2. While population average intakes (0.5 E% from trans fats in 2010/12) are well within public health recommendations, the possibility that artificial trans fats from foods containing PHVO might be consumed at high levels by some vulnerable groups of the population continued to be a concern for some consumers and health groups. For this reason, two voluntary Public Health Responsibility Deal pledges were introduced in England to provide reassurance to consumers and to ensure that intakes of artificial trans fats are reduced to a minimum. The first pledge acknowledged the fact that some organisations had already removed trans fats from their products. The second committed companies to remove artificial trans fats from their products within the next 12 months.

3. The “Revised Dietary Goals for Scotland” describe, in nutritional terms, the diet that will improve and support the health of the Scottish population. They indicate the direction of travel, and assist policy development to reduce the burden of obesity and diet-related disease in Scotland. They will continue to underpin diet and health policy in Scotland and will be used for scientific monitoring purposes.

FBOs covered

1. UK wide recommendation

2. “All our major supermarkets have committed to removing artificial trans fats from our foods. In total almost 100 companies have signed up to this pledge to date, which includes around 69 per cent of the retail /manufacturing market – Kraft Foods, Heinz, Nestle, Weetabix, Warburtons, Kelloggs and Premier Foods to name but a few – as well as 58 per cent of the major high street and contract catering sector.” 226

3. Scotland wide recommendation

Derogations

(e.g. low fat products, local products)

Does not apply

Share of SMEs involved

(in case of voluntary measures)

1. and 3.: Does not apply (UK/Scotland wide)

2. No info

Length and characteristics of transition period

1 and 3: Does not apply (recommendation)

2: Those signed up to F3(a) already have removed trans fat from their offer. Those who signed up to F3(b). Artificial Trans Fat Removal have said they are "(b). We are working to remove artificial trans fats from our products within the next 12 months."

Arrangements for measure enforcement and compliance monitoring

1 and 3: Does not apply (recommendation)

2: Confirmation of pledge delivery for F3(a)

Shortly after signing up to F3(a), partners will be asked to provide a delivery plan in which they must confirm when they met this pledge. All delivery plans will be published on this website. There will be no further reporting for these partners once they have confirmed that they have completed this pledge.

Partners signing up to F3(b) will participate in the Responsibility Deal's reporting arrangements set out below, until they have completed this work and can transfer to F3(a). Shortly after signing up, partners will be asked to provide pledge delivery plans, laying out how they intend to meet each of the pledges they have signed up to. They will have up to 2,000 characters to describe their plans for each pledge they are signed up to. All delivery plans will be published on this website. Partners will be asked to report on their progress by the end of April each year. For some pledges, partners will be asked to report using pre-defined quantitative measures, while for others they will be asked for a narrative update. Further information on the reporting arrangements for each food pledge for the reporting period 2014/2015 is available. 227 All annual updates will be published on this website. 228

Rate of compliance/ participation and favouring conditions

(in case of voluntary measures)

1 and 3: Does not apply (recommendation)

2. No info, though the 11 currently signed for F3(b) signed up more than 12 months ago which could imply they were non-compliant and could not move to F3(a). If this is the case, this means 11 out of a total of 101 who signed up to either a or b were non-compliant.

Tests used to assess trans fats content

No specific tests for monitoring any of the above voluntary measures. However, the Department of Health undertakes a rolling programme of nutrient analysis surveys to ensure that reliable, up-to-date information on the nutritional value of foods is available for use in conjunction with food consumption data collected in dietary surveys to monitor the nutritional content of the nation’s diet. The following tests have been used for different iterations of this monitoring:

I. Department of Health (applies only to England) Nutrient Analysis of Fish and Fish Products (March 2011) and;

Department of Health (applies only to England); Nutrient Analysis of Eggs (November 2010 and February 2011) 229

Method: The lipid fractions of the sample are solvent extracted. The isolated fat is transesterified with methanolic sodium methoxide to form fatty acid methyl esters (FAMES). The FAME profile is determined using capillary gas chromatography (GC). Quantification and identification of individual FAMEs in the test material is achieved with reference to calibration standards.

Accredited to BS/EN ISO/IEC 17025:2005. UKAS 0680 LOQ 0.01 mg/100g

Results: Presented as g TFA/100 g of food

II. Department of Health: Analysis of trans and saturated fatty acids (SFA)

in fats/oils and takeaway products from areas of deprivation in Scotland (2012) 230

Method: Unknown, performed by the Glasgow Public Analyst Laboratory, which is UKAS accredited for fatty acid analysis, including TFA.

Results: Presented as g TFA/100 g of food

Steps taken to raise consumer awareness

No evidence online on campaigns other than from EC report, 231 which lists:

·Dissemination through talks in communities and through the use of local media

·Skills development programmes and programmes available for lower socio-economic status groups

The following organisations have consumer-aimed pages on trans fats (not exhaustive):

NHS (National Health Service): http://www.nhs.uk/Livewell/Goodfood/Pages/Fat.aspx#transfats  

The Association of UK Dietitians:

https://www.bda.uk.com/foodfacts/FatFacts.pdf  

Guidance provided to affected businesses

The Responsibility Deal gives some basic guidance on how to deliver the pledge. 232 Additionally, the Department of Health has developed guidance to support smaller businesses to deliver the pledge. 233

Effectiveness of the measure

A study notes that for trans fat even earlier voluntary action by industry (before 2003) had been effective and efficient at reducing intakes to an acceptable level. 234

Describe (if any) other measures that are currently being considered

No information found.

TFAs in foods and diets

TFAs content in food

(by product, if available please distinguish by trans fats source – iTFA and rTFA, andpartly hydrogenated oil)

From the most comprehensive study (others look at only one or a group of food items (e.g. fish and fish products):

1. Department of ‘Health Nutrient analysis of a range of processed foods with particular reference to trans fatty acids’, 2013 235 NB: detailed FAMES results available via link 236

Product

Trans fats (g/100g)

Cheese and tomato pizza, retail, all bases, not stuffed crust

0.11

Garlic and herb baguette, baked

0.31

Crunchy clusters type breakfast cereal without nuts

0.01

Crunchy/crispy muesli type cereal with nuts

0.01

Quiche Lorraine with shortcrust pastry, retail

0.18

Low fat spread (26-39%), not polyunsaturated (including dairy type)

0.12

Low fat spread (26-39%), not polyunsaturated, with olive oil

0.14

Low fat spread (26-39%), polyunsaturated

0.05

Hard block margarine

0.07

Compound cooking fat, not polyunsaturated

0.06

Ghee made from vegetable oil

0.08

Reduced fat spread (41-62%), polyunsaturated

0.13

Reduced fat spread (41-62%), not polyunsaturated

0.15

Reduced fat spread (41-62%), not polyunsaturated, with olive oil

0.11

Reduced fat spread (62-75%), not polyunsaturated

0.14

Takeaway chicken pieces, coated, deep fried

0.11

Coated chicken pieces, takeaway

0.02

Chicken/turkey burger, coated, baked

0.03

Breaded/battered chicken/turkey pieces, cooked

0.02

Chicken breast/steak, coated, baked

0.02

Beef pie, purchased, puff or shortcrust pastry, family size

0.06

Beef pie, purchased, individual, puff or shortcrust pastry

0.13

Cornish pasty, purchased

0.14

Pork pie, individual

0.06

Sausage roll, purchased, ready to eat, flaky pastry

0.03

Chicken/turkey pasties/slices, puff pastry

0.05

Cod in batter, fried in commercial oil, from takeaway fish and chip shops

0.34

Cod in batter, frozen/chilled, baked

0.02

Cod in breadcrumbs, oven baked

0.01

Fish fingers, pollock, grilled

0.01

Coleslaw, purchased, not low calorie

0.02

Chips, fried in commercial oil, from takeaway fish and chip shops

0.16

Chips, fine cut, from fast food outlets

0.02

Potato chips, oven ready, baked

0.00

Potato chips, oven ready, with batter, baked

0.01

Potato crisps, fried in vegetable oil, not Walkers, not premium crisps, not fried in sunflower oil

0.06

Potato crisps, fried in sunflower oil, including premium, not Walkers1

0.03

Potato crisps, fried in high oleic sunflower oil

0.03

Potato rings (e.g. Hula Hoops)

0.02

Withdrawn

N/A

Tortilla chips in Sunseed or high oleic sunflower oil (e.g. Doritos)

0.08

Corn snacks (e.g. Monster Munch, Wotsits)

0.04

Mixed toffees (including liquorice toffees), not premium

0.07

Chew sweets (e.g. Starburst, Chewits, Blackjacks)

0.01

Milk chocolate bar

0.16

Chocolate covered caramels (e.g. Cadburys caramel)

0.10

Dark chocolate with crème or mint fondant centres

0.01

Mars Bars (and own brand equivalents)

0.05

Maltesers (and similar products)

0.07

Milk chocolate covered caramel and biscuit fingers

0.05

Chocolate covered bar with caramel and cereal

0.09

Milky Way bars (and own brand equivalents)

0.06

Snickers bars (and own brand equivalents)

0.03

Chocolate spread

0.03

Cream of tomato soup, canned

0.01

Instant soup, as purchased

0.01

Mayonnaise, retail, standard

0.04

Baby rusks

0.01

Ice cream, non dairy, vanilla, soft scoop

0.04

Ice cream, dairy, vanilla, soft scoop

0.18

Chocolate/choc mint and nut cone (e.g. Cornetto)

0.03

Ice Cream, luxury, dairy, with chocolate/caramel

0.23

Luxury choc ices (e.g. Walls Dream, Bounty, Magnum)

0.11

Butter, spreadable (75-80% fat)

1.38

Butter, spreadable, light (60% fat)

1.01

Coleslaw, purchased, economy products only

0.01

More specific studies:

2. Department of Health Nutrient Analysis of Fish and Fish Products (March 2011) 237

Product

Trans fats (g/100g)

Cod, chilled/frozen, raw, flesh only

0.00

Cod, chilled/frozen, baked, flesh only

0.00

Cod, chilled/frozen, microwaved, flesh only

0.00

Haddock, chilled/frozen, raw, flesh only

0.00

Haddock, chilled/frozen, grilled, flesh only

0.00

Haddock, chilled/frozen, steamed, flesh only

0.00

Alaskan pollock, chilled/frozen, raw, flesh only

0.01

Sole, chilled/frozen, raw, flesh only

0.00

Sole, chilled/frozen, grilled, flesh only

0.00

Plaice, chilled/frozen, raw, flesh only

0.01

Pangasius, chilled/frozen, raw, flesh only

0.00

Coley, chilled/frozen, raw, flesh only

0.00

Sea bass, chilled/frozen, raw, flesh only

0.02

Sea bass, chilled/frozen, baked, flesh only

0.01

Prawns, cold-water, purchased cooked

0.00

Prawns, king, warm-water, raw

0.00

Prawns, king, warm-water, grilled from raw

0.00

Prawns, king, warm-water, purchased cooked

0.00

Mussels, purchased cooked

0.00

Crab, brown meat

0.04

Crab, white meat

0.00

Mackerel, chilled/frozen, raw, flesh only

0.02

Mackerel, chilled/frozen, grilled, flesh only

0.02

Trout, rainbow, chilled/frozen, raw

0.01

Trout, rainbow, chilled/frozen, baked

0.01

Kippers (analysed without butter), grilled

0.01

Kippers, boil in the bag, with butter, cooked

0.02

Tuna, chilled/frozen, raw

0.00

Tuna, chilled/frozen, baked

0.00

Sardines, chilled/frozen, raw

0.01

Haddock, smoked, chilled/frozen, poached

0.00

Plaice, coated in breadcrumbs, baked

0.02

Calamari, coated in batter, baked

0.02

Fish fingers, cod, grilled/baked

0.02

Fish fingers, cod, fried

N/A

Fish fingers, salmon, grilled/baked

0.02

Cod, coated in batter, fried

N/A

Fishcakes, white fish, coated in breadcrumbs, baked

0.02

Fishcakes, salmon, coated in breadcrumbs, baked

0.04

Scampi, coated in breadcrumbs, baked

0.01

Scampi coated in breadcrumbs, fried

N/A

Fish pie, white fish, retail, baked

0.12

Mussels in white wine sauce, cooked

0.04

Salmon, smoked (cold-smoked)

0.01

Salmon, smoked (hot-smoked)

0.01

Mackerel, smoked

0.02

Seafood sticks

0.00

Tuna, canned in brine

0.00

Tuna, canned in sunflower oil

0.00

Salmon, red, canned

0.01

Salmon, red, canned, skinless and boneless

0.01

Salmon, pink, canned

0.01

Mackerel, canned in brine

0.01

Sardines, canned in tomato sauce

0.01

Sardines, canned in brine

0.01

Langoustine, boiled

0.00

3. Department of Health Nutrient Analysis of Eggs (November 2010 – February 2011) 238

Product

Trans fats (g/100g)

Whole egg, raw

0.00

Eggs, chicken, white, raw

N/A

Egg yolk, raw

0.00

Whole egg, boiled

0.00

Eggs, chicken, white, boiled

N/A

Egg yolk, boiled

0.00

Whole egg, poached

0.00

Whole egg, fried

0.00

Product (oils)

Trans fats (g/100g oil)

Beef dripping (new)

4.8 ± 0.3

Animal origin oil (used)

4.6 ± 0.3

Vegetable oil blended (new)

1.4 ± 0.1

Vegetable oil (used)

1.8 ± 0.2

Product (takeaway meals)

Trans fats (g/100g)

Spring rolls

0.14

Chicken pakora

0.18

Vegetable pakora

0.28

Sausage

0.33

Chips

0.35

Fritters

0.73

Fish

0.63

3. A more recent and wider scope study on takeaways than the study above on which more data is available is ‘Saturated and trans-fatty acids in UK takeaway food’ 239

Meal type

TFA (g/100 g): median

Chinese (all meals)

0.03

Sweet and Sour Chicken with boiled rice

0.02

Chicken Chow Mein

0.10

Char Sin Chow Mein

0.02

Chicken Satay with fried rice

0.01

Kung Po King Prawns with boiled rice

0.04

Special Fried Rice

0.1

Indian (all meals)

0.09

Chicken Korma with pilau rice

0.09

Lam Rogan Josh with pilau rice

0.10

Vegetable Biryani

0.10

English (all meals)

0.07

Chicken and chips

0.1

Fish and chips

0.03

Chips and curry sauce

0.1

Pizzas (all meals)

0.18

Ham and Pineapple pizza

0.18

Meat pizza

0.18

Kebabs (all meals)

0.53

Donner kebab with chips

0.84

Donner kebab

0.43

Variation in TFAs content in food after implementation of measure

N/A (no ‘post’ measurement as such and measure is ongoing)

Future projections of TFAs content in food (e.g. a major FBO pledged to reduce trans fats content in own products)

“All our major supermarkets have committed to removing artificial trans fats from our foods. In total almost 100 companies have signed up to this pledge to date, which includes around 69 per cent of the retail /manufacturing market – Kraft Foods, Heinz, Nestle, Weetabix, Warburtons, Kelloggs and Premier Foods to name but a few – as well as 58 per cent of the major high street and contract catering sector.” 240

TFAs intake

(if available please report data by trans fats source – iTFA and rTFA, age and socio-economic group, andpartly hydrogenated oil contribution)

1. The Diet and nutrition survey of infants and young children, 2011 shows the following results: 241

Energy, macronutrients

Age group (months)

 

4-6

7-9

10-11

12-18

Trans fatty acids g

 

 

 

 

Mean (=median)

0.1

0.2

0.3

0.6

% total energy

 

 

 

 

Mean (=median)

0.1

0.2

0.3

0.5

2. Derived from: National Diet and Nutrition Survey Results from Years 1, 2, 3 and 4 (combined) of the Rolling Programme (2008/2009 – 2011/2012): 242

Average daily trans fatty acid intake g

Boys

4-10

1.1

11-18

1.4

Total

boys

1.2

Men

19-64

1.5

65+

1.5

Girls

4-10

1.1

11-18

1.1

Total

girls

1.1

Women

19-64

1.1

65+

1.2

Total

1.5-3

0.8

4-10

1.1

11-18

1.2

19-64

1.3

65+

1.3

Also available by income group*age group* sex:

NB: * p<0.05 and ** p<0.01 denotes a statistical difference between an individual quintile and the highest quintile (reference quintile) of equivalent age group;

No statistical analysis has been carried out on 65+ due to the cell size of quintile 5 being below 50.

Trans fat g

Trans fat % food energy

Mean

Median

Mean

Median

Boys 4-10 years

Quintile 1

1.1

1.0

0.6

0.6

Quintile 2

1.1

1.0

0.6

0.6

Quintile 3

0.9**

0.8

0.5*

0.5

Quintile 4

1.2

1.1

0.6

0.6

Quintile 5

1.1

1.1

0.6

0.6

Boys 11-18 years

Quintile 1

1.5

1.4

0.7

0.6

Quintile 2

1.2**

1.1

0.6**

0.6

Quintile 3

1.4

1.2

0.6

0.6

Quintile 4

1.4

1.3

0.6

0.6

Quintile 5

1.5

1.4

0.6

0.6

Total boys

Quintile 1

1.3

1.2

0.6

0.6

Quintile 2

1.1

1.1

0.6*

0.6

Quintile 3

1.2

1.0

0.6

0.6

Quintile 4

1.3

1.2

0.6

0.6

Quintile 5

1.3

1.2

0.6

0.6

Men 19-64 years

Quintile 1

1.2*

1.1

0.6*

0.5

Quintile 2

1.4

1.2

0.6

0.6

Quintile 3

1.4

1.3

0.6

0.6

Quintile 4

1.5

1.5

0.7

0.6

Quintile 5

1.5

1.4

0.7

0.6

Men 65+

Quintile 1

[1.5]

[1.3]

[0.7]

[0.7]

Quintile 2

1.5

1.3

0.7

0.6

Quintile 3

[1.4]

[1.4]

[0.7]

[0.7]

Quintile 4

1.6

1.5

0.8

0.7

Quintile 5

Girls 4-10 years

Quintile 1

1.0

0.9

0.6

0.6

Quintile 2

1.1

1.1

0.7

0.6

Quintile 3

1.0

0.9

0.6

0.6

Quintile 4

1.2*

1.1

0.7

0.7

Quintile 5

1.0

1.0

0.6

0.6

Girls 11-18 years

Quintile 1

1.1

0.9

0.6

0.6

Quintile 2

1.1

1.0

0.6

0.6

Quintile 3

1.0

1.0

0.6

0.5

Quintile 4

1.1

1.0

0.6

0.6

Quintile 5

1.0

0.9

0.6

0.6

Total girls

Quintile 1

1.0

0.9

0.6

0.6

Quintile 2

1.1

1.0

0.6

0.6

Quintile 3

1.0

1.0

0.6

0.6

Quintile 4

1.1

1.1

0.7

0.6

Quintile 5

1.0

0.9

0.6

0.6

Women 19-64 years

Quintile 1

1.1

1.1

0.6

0.6

Quintile 2

1.1

1.0

0.7

0.6

Quintile 3

1.0**

1.0

0.6

0.6

Quintile 4

1.2

1.1

0.7

0.7

Quintile 5

1.2

1.1

0.7

0.7

Women 65+

Quintile 1

1.3

1.2

0.8

0.8

Quintile 2

1.2

1.0

0.7

0.6

Quintile 3

1.1

0.9

0.7

0.7

Quintile 4

1.4

1.3

0.8

0.8

Quintile 5

[1.2]

[1.0]

[0.7]

[0.7]

(also available without the breakdown by sex)

3. The Food Standards Agency Low income diet and nutrition survey Volume 2 Food consumption Nutrient intake found that: ‘Mean intakes expressed as a percentage of food energy were 1.3% in men and women and 1.2% in boys and girls. They did not differ significantly between the sexes in any age group, or between adults and children, but were marginally higher in women aged 65 and over (1.4%) compared with other age groups (1.2%).The COMA recommendation2 is that the population average contribution of trans fatty acids to energy should not exceed 2% and average intakes were below this figure. Over the 24 hour (24h) recall days, intakes by consumers in the upper 2.5 percentile were over double the recommended maximum.’ 243 Further data is available breaking results down by age groups (2-10; 11-18; 19-34; 35-49; 50-64; 65+) and sex.

Variation in TFAs intake after implementation of measure

There is no ‘post’ measurement as such and measure is ongoing but the National Diet and Nutrition Survey Results can be used to look at variation over time: 244

Trans fat g

Trans fat % food energy

Mean

Median

Mean

Median

Year

Boys

4-10

1.3

1.3

0.8

0.7

1 + 2

11-18

1.6

1.5

0.7

0.7

Total

boys

1.5

1.4

0.7

0.7

Men

19-64

1.8

1.7

0.8

0.8

65+

1.8

1.6

0.9

0.8

Year

Boys

4-10

0.8**

0.8

0.5**

0.5

3 + 4

11-18

1.1**

1.0

0.5**

0.5

Total

boys

1.0**

0.9

0.5**

0.5

Men

19-64

1.2**

1.1

0.5**

0.5

65+

1.2**

1.0

0.6**

0.5

Year

Girls

4-10

1.3

1.2

0.8

0.7

1 + 2

11-18

1.3

1.2

0.7

0.7

Total

girls

1.3

1.2

0.8

0.7

Women

19-64

1.3

1.2

0.8

0.7

65+

1.5

1.4

0.9

0.8

Year

Girls

4-10

0.8**

0.8

0.5**

0.5

3 + 4

11-18

0.8**

0.8

0.5**

0.5

Total

girls

0.8**

0.8

0.5**

0.5

Women

19-64

0.9**

0.8

0.6**

0.5

65+

1.0**

0.9

0.6**

0.6

(also available without the breakdown by sex)

Information on national consumer awareness of TFAs issues (e.g. terminology, impact of food choice)

Food Standard Agency surveys and research from 2007 showed that consumer concerns remained relatively low in comparison to those about other nutrients and food safety issues. 245 When asked to choose from a list what types of fats it was most important for them to cut down on, just 15% of respondents selected trans fats and hydrogenated vegetable oils. In contrast 45% named saturated fats as the key fat of concern. 246

Measure impacts

Business responses and costs

Number of business that reformulated their products

(if possible differentiate by large and small companies)

N/A (but as noted above: “All our major supermarkets have committed to removing artificial trans fats from our foods. In total almost 100 companies have signed up to this pledge to date, which includes around 69 per cent of the retail /manufacturing market – Kraft Foods, Heinz, Nestle, Weetabix, Warburtons, Kelloggs and Premier Foods to name but a few – as well as 58 per cent of the major high street and contract catering sector.”)

Evidence of FBO sector facing specific challenges

No information found.

For which oils/fats was there a reduction in use and with what were they replaced?

No information found.

Costs of changes in products and processes

(if possible differentiate by type of cost and include figures)

No information found.

Cost of understanding/learning the measure for FBOs

No information found.

Consumer prices and choice

Evidence of changes in the price of reformulated products

No information found.

Evidence of price differences between products with iTFAs and alternatives

No information found.

Evidence of changes in the range, quality or taste of products available

No information found.

Evidence of changes in TFAs consumption

No information found other than information on intake as described above, i.e.:

National Diet and Nutrition Survey Results can be used to look at variation over time: 247

Trans fat g

Trans fat % food energy

Mean

Median

Mean

Median

Year

Boys

4-10

1.3

1.3

0.8

0.7

1 + 2

11-18

1.6

1.5

0.7

0.7

Total

boys

1.5

1.4

0.7

0.7

Men

19-64

1.8

1.7

0.8

0.8

65+

1.8

1.6

0.9

0.8

Year

Boys

4-10

0.8**

0.8

0.5**

0.5

3 + 4

11-18

1.1**

1.0

0.5**

0.5

Total

boys

1.0**

0.9

0.5**

0.5

Men

19-64

1.2**

1.1

0.5**

0.5

65+

1.2**

1.0

0.6**

0.5

Year

Girls

4-10

1.3

1.2

0.8

0.7

1 + 2

11-18

1.3

1.2

0.7

0.7

Total

girls

1.3

1.2

0.8

0.7

Women

19-64

1.3

1.2

0.8

0.7

65+

1.5

1.4

0.9

0.8

Year

Girls

4-10

0.8**

0.8

0.5**

0.5

3 + 4

11-18

0.8**

0.8

0.5**

0.5

Total

girls

0.8**

0.8

0.5**

0.5

Women

19-64

0.9**

0.8

0.6**

0.5

65+

1.0**

0.9

0.6**

0.6

(also available without the breakdown by sex)

Effect on consumer information and awareness

Food Standard Agency surveys and research from 2007 showed that consumer concerns remained relatively low in comparison to those about other nutrients and food safety issues. 248 When asked to choose from a list what types of fats it was most important for them to cut down on, just 15% of respondents selected trans fats and hydrogenated vegetable oils. In contrast 45% named saturated fats as the key fat of concern. 249

Health effects

Evidence of benefits on consumer health

(if possible differentiate by age and socio-economic group)

From Eurostat 250

 

2011

2012

2013

2014

M Total

79,085

79,334

79,722

78,222

M Younger than 25

175

164

143

127

M 25-49

2,975

2,906

2,872

2,860

M 50-64

10,506

9,775

10,056

9,859

M 65 and older

65,429

66,489

66,651

65,376

F Total

80,171

82,637

79,514

76,689

F Younger than 25

104

115

111

84

F 25-49

1,192

1,191

1,214

1,208

F 50-64

3,885

3,983

3,930

3,909

F 65 and older

74,990

77,348

74,259

71,488

Total

159,256

161,971

159,236

154,911

Evidence of change in saturated fats intake

Mean daily saturated fat intakes for all age/sex groups, in line with total fat intakes, also tended to be lower in Y3&4 compared with those in Y1&2, with significant differences observed in boys aged 4 to 10 years (22.1g versus 24.0g), men aged 19 to 64 years (27.4g versus 29.4g), girls aged 11 to 18 years (20.9g versus 22.5g) and women 65 years and over (21.4g versus 24.3g), In line with total fat, mean saturated fat intakes as a percentage of food energy tended to be slightly lower in Y3&4 compared with Y1&2 and were significantly lower in boys aged 4 to 10 years (12.7% versus 13.4%) and women aged 65 years and over (13.2% versus 14.3%). 251

Saturated fat g

Saturated fat % food energy

Mean

Median

Mean

Median

Year

Boys

4-10

24.0

23.5

13.44

13.11

1 + 2

11-18

28.2

26.8

12.72

12.56

Total

boys

26.4

25.4

13.02

12.84

Men

19-64

29.4

27.6

12.89

12.84

65+

29.5

28.4

14.38

14.35

Year

Boys

4-10

22.1*

21.6

12.74

12.56

3 + 4

11-18

27.4

25.8

12.59

12.5

Total

boys

24.9

23.9

12.66

12.54

Men

19-64

27.4*

26.7

12.4

12.37

65+

27.8

24.3

13.28

13.14

Year

Girls

4-10

22.7

22.2

13.4

13.5

1 + 2

11-18

22.5

21.5

12.5

12.5

Total

girls

22.6

21.9

12.9

12.9

Women

19-64

22.6

21.6

12.7

12.5

65+

24.3

23.4

14.3

14.6

Year

Girls

4-10

21.8

20.7

13.2

13.2

3 + 4

11-18

20.9*

20.5

12.3

12.1

Total

girls

21.3

20.7

12.6

12.5

Women

19-64

21.6

20.4

12.6

12.5

65+

21.4*

21.6

13.2*

13.2

Competition, innovation and trade

Effect on competition in the domestic market

No information found.

Changes in trade of affected goods

No information found.

Effect on innovation among suppliers (i.e. reformulation and/or changes in production processes)

No information found.

Administrative burdens

Number of businesses required to provide information

No information found.

Evidence of economic burden associated with compliance for FBOs

(obtain cost data if possible)

No information found.

Evidence of authorities' effort to enforce/monitor measure

(obtain cost data if possible)

No information found.

Environmental impacts

Evidence of any environmental costs or benefits

No information found.

Evidence of increase in demand for palm oil / other ingredients

No information found.

Effects on deforestation resulting from variation in demand of ingredients

(e.g. palm oil, soy)

No information found.

(1)     https://www.konsument.at/presse/transfette-in-lebensmitteln-erhoehter-gehalt-bei-importprodukten-moeglich-26-02-2014  
(2)     https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf  
(3)     http://www.forum-ernaehrung.at/artikel/detail/news/detail/News/trans-fettsaeuren-unter-beschuss/  
(4) See: http://www.konsumentenfragen.at/cms/konsumentenfragen/attachments/1/5/7/CH0948/CMS1424769941810/transfettsaeuren_2015.pdf
(5)     https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf , p. 36-37
(6)     https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf p. 34
(7)     https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf  
(8)     https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf p. 34
(9)     https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf p. 34
(10)       http://www.agrar.basf.at/agroportal/at/de/aktuell_at/ps_news_agro_market/ernaehrung-226820.html  
(11)   http://www.konsumentenfragen.at/cms/konsumentenfragen/attachments/1/5/7/CH0948/CMS1424769941810/transfettsaeuren_2015.pdf  
(12) L’Abbe (2009) Case study – taking trans fat out of the food supply – the Canadian Experience. Health Canada (PHD presentation): available online at: http://www.pmaconference.mahidol.ac.th/index.php?option=com_docman&task=doc_download&gid=120  
(13)     http://www.inspection.gc.ca/food/labelling/food-labelling-for-industry/nutrition-labelling/additional-information/labelling-of-trans-fatty-acids/eng/1415805355559/1415805356965  
(14)   http://www.news-medical.net/health/Trans-Fat-Regulation.aspx  
(15)     http://www.inspection.gc.ca/food/labelling/food-labelling-for-industry/nutrition-labelling/additional-information/labelling-of-trans-fatty-acids/eng/1415805355559/1415805356965  
(16)      L’Abbe (2009) Case study – taking trans fat out of the food supply – the Canadian Experience. Health Canada (PHD presentation): available online at: http://www.pmaconference.mahidol.ac.th/index.php?option=com_docman&task=doc_download&gid=120  
(17)      Ibid.
(18)   http://www.edu.gov.on.ca/eng/healthyschools/healthier.html  
(19)   http://www.ourcommons.ca/DocumentViewer/en/40-3/HESA/meeting-15/evidence  
(20) L’Abbe (2009) Case study – taking trans fat out of the food supply – the Canadian Experience. Health Canada (PHD presentation): available online at: http://www.pmaconference.mahidol.ac.th/index.php?option=com_docman&task=doc_download&gid=120  
(21)     http://www.inspection.gc.ca/food/labelling/food-labelling-for-industry/nutrition-labelling/prohibitions/eng/1386948927357/1386948928185  
(22)     http://www.ourcommons.ca/DocumentViewer/en/40-3/HESA/meeting-15/evidence .
(23)       http://www5.agr.gc.ca/resources/prod/doc/agr/pdf/PotentialEconomicReport_e.pdf  
(24)     https://www.canada.ca/en/health-canada/programs/banning-partially-hydrogenated-oils-in-foods/consultation-document.html#c11  
(25)   http://ajcn.nutrition.org/content/early/2014/08/06/ajcn.114.088732/suppl/DCSupplemental  
(26)   https://docs.google.com/viewerng/viewer?url=https://cdn.intechopen.com/pdfs/42954.pdf&time=c3344365842b3bf1453a3bbb133492b0  
(27)       http://www.inspection.gc.ca/food/labelling/food-labelling-for-industry/nutrition-labelling/additional-information/labelling-of-trans-fatty-acids/eng/1415805355559/1415805356965  
(28)      L’Abbe (2009) Case study – taking trans fat out of the food supply – the Canadian Experience. Health Canada (PHD presentation): available online at: http://www.pmaconference.mahidol.ac.th/index.php?option=com_docman&task=doc_download&gid=120  
(29)     http://www.inspection.gc.ca/food/labelling/food-labelling-for-industry/nutrition-labelling/additional-information/labelling-of-trans-fatty-acids/eng/1415805355559/1415805356965
(30)     https://www.canada.ca/en/health-canada/programs/banning-partially-hydrogenated-oils-in-foods/consultation-document.html#c11  
(31)     http://www.hc-sc.gc.ca/fn-an/consult/nop-adp-c-2017-3/nop-adp-c-2017-3-eng.php  
(32)     https://www.canada.ca/en/health-canada/programs/banning-partially-hydrogenated-oils-in-foods/consultation-document.html#b11  
(33)     http://www.ag-innovation.usask.ca/final%20policy%20briefs/GrayMalla_TransFat10.pdf  
(34)   http://www.ourcommons.ca/DocumentViewer/en/40-3/HESA/meeting-15/evidence  
(35)   http://www.ourcommons.ca/DocumentViewer/en/40-3/HESA/meeting-15/evidence  
(36)     https://cns-scn.ca/sites/default/uploads/files/HC%20Consultation%20-CNS%20response-FINAL.pdf  
(37)   http://www.ourcommons.ca/DocumentViewer/en/40-3/HESA/meeting-15/evidence  
(38)      L’Abbe (2009) Case study – taking trans fat out of the food supply – the Canadian Experience. Health Canada (PHD presentation): available online at: http://www.pmaconference.mahidol.ac.th/index.php?option=com_docman&task=doc_download&gid=120  
(39)      Ricciuto L, Lin K, Tarasuk V. A comparison of the fat composition and prices of margarines between 2002 and 2006, when new Canadian labelling regulations came into effect. Public Health Nutr 2009; 12: 1270-5 http://dx.doi.org/10.1017/S1368980008003868
(40) https://docs.google.com/viewerng/viewer?url=https://cdn.intechopen.com/pdfs/42954.pdf&time=c3344365842b3bf1453a3bbb133492b0  
(41)       http://ajcn.nutrition.org/content/early/2014/08/06/ajcn.114.088732/suppl/DCSupplemental  
(42)

     Arcand, J., Scourboutakos, M. J., Au, J. T., & L'abbe, M. R. (2014). trans Fatty acids in the Canadian food supply: an updated analysis. The American journal of clinical nutrition, ajcn-088732.

(43)       http://www.ourcommons.ca/DocumentViewer/en/40-3/HESA/meeting-15/evidence  
(44)   https://docs.google.com/viewerng/viewer?url=https://cdn.intechopen.com/pdfs/42954.pdf&time=c3344365842b3bf1453a3bbb133492b0  
(45) L’Abbe (2009) Case study – taking trans fat out of the food supply – the Canadian Experience. Health Canada (PHD presentation): available online at: http://www.pmaconference.mahidol.ac.th/index.php?option=com_docman&task=doc_download&gid=120  
(46)   https://docs.google.com/viewerng/viewer?url=https://cdn.intechopen.com/pdfs/42954.pdf&time=c3344365842b3bf1453a3bbb133492b0  
(47)   https://docs.google.com/viewerng/viewer?url=https://cdn.intechopen.com/pdfs/42954.pdf&time=c3344365842b3bf1453a3bbb133492b0  
(48)     https://www.canada.ca/en/health-canada/programs/banning-partially-hydrogenated-oils-in-foods/consultation-document.html#c11 ; (see appendix 1 for breakdown by gender and age)
(49)   https://docs.google.com/viewerng/viewer?url=https://cdn.intechopen.com/pdfs/42954.pdf&time=c3344365842b3bf1453a3bbb133492b0  
(50)      L’Abbe (2009) Case study – taking trans fat out of the food supply – the Canadian Experience. Health Canada (PHD presentation): available online at: http://www.pmaconference.mahidol.ac.th/index.php?option=com_docman&task=doc_download&gid=120  
(51)   https://docs.google.com/viewerng/viewer?url=https://cdn.intechopen.com/pdfs/42954.pdf&time=c3344365842b3bf1453a3bbb133492b0
(52)      Ratnayake WMN, Swist E, Zoka R, Gagnon C,  Lillycrop W, and Pantazapoulos P. (2014). Mandatory trans fat labelling regulations and nationwide product reformulations to reduce trans fatty acid content in foods contributed to lowered concentrations of trans fat in Canadian women's breast milk samples collected in 2009-2011. American Journal of Clinical Nutrition, 100 (4):1036-1040.
(53)     https://www.canada.ca/en/health-canada/programs/banning-partially-hydrogenated-oils-in-foods/consultation-document.html#c11  
(54)     https://www.ncbi.nlm.nih.gov/labs/pubmed/28401129-circulating-concentrations-and-relative-percent-composition-of-trans-fatty-acids-in-healthy-canadian-young-adults-between-2004-and-2010-a-cross-sectional-study/  
(55)      L’Abbe (2009) Case study – taking trans fat out of the food supply – the Canadian Experience. Health Canada (PHD presentation): available online at: http://www.pmaconference.mahidol.ac.th/index.php?option=com_docman&task=doc_download&gid=120
(56) L’Abbe (2009) Case study – taking trans fat out of the food supply – the Canadian Experience. Health Canada (PHD presentation): available online at: http://www.pmaconference.mahidol.ac.th/index.php?option=com_docman&task=doc_download&gid=120  
(57)   http://www.ourcommons.ca/DocumentViewer/en/40-3/HESA/meeting-15/evidence  
(58) http://www.ourcommons.ca/DocumentViewer/en/40-3/HESA/meeting-15/evidence
(59)   http://www.foodincanada.com/food-in-canada/the-other-big-oil-132907/  
(60) http://www.ourcommons.ca/DocumentViewer/en/40-3/HESA/meeting-15/evidence
(61)    http://www.ag-innovation.usask.ca/final%20policy%20briefs/GrayMalla_TransFat10.pdf
(62) Though not indicated specifically in the source, the values are understood to be in Canadian dollars.
(63)   https://docs.google.com/viewerng/viewer?url=https://cdn.intechopen.com/pdfs/42954.pdf&time=c3344365842b3bf1453a3bbb133492b0  
(64) Currency not stated in primary source but understood to be USD.
(65)   https://docs.google.com/viewerng/viewer?url=https://cdn.intechopen.com/pdfs/42954.pdf&time=c3344365842b3bf1453a3bbb133492b0  
(66) http://www5.statcan.gc.ca/cansim/a26?lang=eng&retrLang=eng&id=1020561&pattern=&csid=
(67) https://docs.google.com/viewerng/viewer?url=https://cdn.intechopen.com/pdfs/42954.pdf&time=c3344365842b3bf1453a3bbb133492b0
(68) http://www.ag-innovation.usask.ca/final%20policy%20briefs/GrayMalla_TransFat10.pdf
(69)      L’Abbe (2009) Case study – taking trans fat out of the food supply – the Canadian Experience. Health Canada (PHD presentation): available online at: http://www.pmaconference.mahidol.ac.th/index.php?option=com_docman&task=doc_download&gid=120  
(70)   https://docs.google.com/viewerng/viewer?url=https://cdn.intechopen.com/pdfs/42954.pdf&time=c3344365842b3bf1453a3bbb133492b0  
(71)      Ratnayake WMN, L’Abbe MR, Mozaffarian D. Nationwide product reformulations to reduce trans fatty acids in Canada: when trans fat goes out, what goes in? Eur J Clin Nutr 2009; 63: 808-11 http://dx.doi.org/10.1038/ejcn.2008.39 pmid: 18594558
(72)         Arcand, J., Scourboutakos, M. J., Au, J. T., & L'abbe, M. R. (2014). trans Fatty acids in the Canadian food supply: an updated analysis. The American journal of clinical nutrition, ajcn-088732.
(73)      Interview with the Confederation of Danish Industry (13 July 2017)
(74) Danish food institute. ‘Analysis of trans fatty acids in Denmark, industrially produced versus ruminant trans fatty acids.’
(75) Traill, Bech‐Larsen, Gennaro, Koziol‐Kozakowska, Kuhn, and Wills (2012). Reformulation for healthier food: a qualitative assessment of alternative approaches. P. 8. Link: https://www.researchgate.net/publication/254384473_Reformulation_for_healthier_food_a_qualitative_assessment_of_alternative_approaches  
(76) Interview with The Danish Veterinary and Food Administration (5 July 2017)
(77) Interview with the Confederation of Danish Industry (13 July 2017)
(78) Interview with The Danish Veterinary and Food Administration (5 July 2017)
(79) Interview with The Danish Veterinary and Food Administration (5 July 2017)
(80) Interview with the Confederation of Danish Industry (13 July 2017)
(81) Interview with a food procurement company (12 July 2017)
(82)     https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf  
(83) Interview with The Danish Veterinary and Food Administration (5 July 2017)
(84) Interview with the Confederation of Danish Industry (13 July 2017)
(85) Interview with The Danish Veterinary and Food Administration (5 July 2017)
(86) The National Food Institute (2014). Transfedtsyrer i udvalgte fødevarer 2012. P. 6-8.
(87) The National Food Institute (2014). Transfedtsyrer i udvalgte fødevarer 2012. P. 9.
(88) The National Food Institute (2014). Transfedtsyrer i udvalgte fødevarer 2012. P. 9.
(89)    Koch, Davidsen og Juel (2012). Social Ulighed i sundhed, sygelighed og trivsel 2010 og udvikligen siden 1987. National Institute of Public Health, University of Southern Denmark.
(90)    Restrepo and Rieger (2016). Denmark’s Policy on Artificial Trans Fat and Cardiovascular Disease. In American Journal of Preventive Medicine 50 (1). Pp. 69–76; Martin-Saborido, Mouratidou, Livaniou, Caldeira, and Wollgast (2016). Public health economic evaluation of different European Union–level policy options aimed at reducing population dietary trans fat intake. In The American Journal of Clinical Nutrition. P. 1219.
(91)     http://videnskab.dk/krop-sundhed/dansk-forbud-mod-transfedt-redder-liv-om-dagen
(92)   http://videnskab.dk/krop-sundhed/dansk-forbud-mod-transfedt-redder-liv-om-dagen
(93)     http://politiken.dk/mad/art5508833/Verdens-farligste-fedtstof-er-p%C3%A5-vej-ud  
(94)     http://politiken.dk/forbrugogliv/sundhedogmotion/art5508832/Varer-i-indvandrerbutikker-fyldt-med-transfedt  
(95) Interview with The Danish Veterinary and Food Administration (5 July 2017)
(96) Bysted, Mikkelsen and Leth (2009). Substitution of trans fatty acids in foods on the Danish market. In European Journal of Lipid Science and Technology 111 (6), No. 6. Pp. 574-583.
(97) Interview with a food procurement company (12 July 2017)
(98) Bysted, Mikkelsen and Leth (2009). Substitution of trans fatty acids in foods on the Danish market. In European Journal of Lipid Science and Technology 111 (6), No. 6. Pp. 574-583.
(99) Ministry of Food, Agriculture and Fisheries of Denmark and the National Food Institute (2014). Danish data on trans fatty acids in foods. P.8
(100) Interview with a food procurement company (12 July 2017)
(101) Interview with The Danish Veterinary and Food Administration (5 July 2017)
(102) Interview with a food procurement company (12 July 2017)
(103) Interview with the Confederation of Danish Industry (13 July 2017)
(104) Interview with a food procurement company (12 July 2017)
(105)    See table 1: http://ec.europa.eu/eurostat/statistics-explained/index.php/Cardiovascular_diseases_statistics
(106) Restrepo and Rieger (2016). Denmark’s Policy on Artificial Trans Fat and Cardiovascular Disease. In American Journal of Preventive Medicine 50 (1). Pp. 69–76
(107) Ministry of Food, Agriculture and Fisheries of Denmark and the National Food Institute (2014). Danish data on trans fatty acids in foods. P. 11.
(108) Ministry of Food, Agriculture and Fisheries of Denmark and the National Food Institute (2014). Danish data on trans fatty acids in foods. P. 9.
(109) Ministry of Food, Agriculture and Fisheries of Denmark and the National Food Institute (2014). Danish data on trans fatty acids in foods. P. 12.
(110) Ministry of Food, Agriculture and Fisheries of Denmark and the National Food Institute (2014). Danish data on trans fatty acids in foods. P. 12.
(111) Ministry of Food, Agriculture and Fisheries of Denmark and the National Food Institute (2014). Danish data on trans fatty acids in foods. P. 12.
(112) Interview with The Danish Veterinary and Food Administration (5 July 2017)
(113) Ministry of Food, Agriculture and Fisheries of Denmark and the National Food Institute (2014). Danish data on trans fatty acids in foods. P. 12
(114) Interview with a food procurement company (12 July 2017)
(115)      Interview with The Danish Veterinary and Food Administration (5 July 2017)
(116)      Interview with a food procurement company (12 July 2017)
(117)      Interview with The Danish Veterinary and Food Administration (5 July 2017)
(118)       https://www.bll.de/de/lebensmittel/ernaehrung/fett/tfa-trans-fettsaeuren  
(119)   http://www.bmel.de/DE/Ernaehrung/SichereLebensmittel/RueckstaendeKontaminanten/_Texte/Transfettsaeuren.html
(120)     http://www.bmel.de/SharedDocs/Downloads/Ernaehrung/Rueckstaende/Trans-Fettsaeuren/TFA_Inhalt.pdf?__blob=publicationFile  
(121)   https://www.bll.de/de/lebensmittel/ernaehrung/fett/tfa-trans-fettsaeuren
(122) http://www.bfr.bund.de/cm/343/hoehe-der-derzeitigen-trans-fettsaeureaufnahme-in-deutschland-ist-gesundheitlich-unbedenklich.pdf
(123)     https://www.bll.de/de/lebensmittel/ernaehrung/fett/tfa-trans-fettsaeuren (3rd Report issued by the BLL)
(124) 3. Bericht seit der Unterzeichnung der Initiative im Juni 2012 ( https://www.bll.de/de/lebensmittel/ernaehrung/fett/tfa-trans-fettsaeuren )
(125)   http://www.bvl.bund.de/SharedDocs/Downloads/01_Lebensmittel/02_BUEp_dokumente/buep_berichte_archiv/BUEp_Bericht_2008.pdf?__blob=publicationFile&v=6
(126) Bundesweiter Überwachungsplan 2011. Gemeinsamer Bericht des Bundes und der Länder. Bundesamt für Verbraucherschutz und Lebensmittelsicherheit (BVL) (2013)
(127) Kuhnt, K., et al.: Trans fatty acid isomers and the trans-9/ trans-11 index in fat containing foods. Eur. J. Lipid Sci. Technol, 2011. 113: p. 1281-1292.Cited in http://publications.jrc.ec.europa.eu/repository/bitstream/JRC91353/lbna26795enn.pdf  
(128)   http://ec.europa.eu/health/sites/health/files/nutrition_physical_activity/docs/ev20120209_co07_en.pdf (2012)
(129)    http://www.fei-bonn.de/gefoerderte-projekte/projektdatenbank/aif-17875-n.projekt
(130) https://net.jogtar.hu/jr/gen/hjegy_doc.cgi?docid=a1300071.emm
(131) http://portal.nebih.gov.hu/elelmiszer-es-takarmanybiztonsagi-igazgatosag
(132) http://www.ogyei.gov.hu/dynamic/tfa_2017-Ine.xlsx
(133)    https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf
(134)    https://eu-brusszel.mfa.gov.hu/assets/41/85/91/b3477161e14b1ae5d25a7f3d6f2a9d93b7833546.pdf
(135) https://net.jogtar.hu/jr/gen/hjegy_doc.cgi?docid=a1400037.emm
(136) http://www.ogyei.gov.hu/dynamic/tfa_2017-Ine.xlsx
(137)    https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf
(138) http://alimento.blog.hu/2013/11/24/transz-zsirsavak_kulonvelemeny
(139)    https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf
(140)   https://eu-brusszel.mfa.gov.hu/assets/41/85/91/b3477161e14b1ae5d25a7f3d6f2a9d93b7833546.pdf  
(141)   http://alimento.blog.hu/2013/11/24/transz-zsirsavak_kulonvelemeny
(142)   https://eu-brusszel.mfa.gov.hu/assets/41/85/91/b3477161e14b1ae5d25a7f3d6f2a9d93b7833546.pdf  
(143)       https://eu-brusszel.mfa.gov.hu/assets/41/85/91/b3477161e14b1ae5d25a7f3d6f2a9d93b7833546.pdf  
(144) Links to publicity campaigns online:    http://www.vm.gov.lv/images/userfiles/phoebe/aktualitates_aktualitates_augsas_virsdala_ba89d22083b17edac22575a6002bb060/trans_tauki.pdf    http://www.vm.gov.lv/lv/tava_veseliba/veseligs_uzturs/ https://www.spkc.gov.lv/upload/Infografikas/Informativi%20materiali/infografika_tauki.pdf
(145) http://www.vm.gov.lv/lv/ministrija/seminars_par_sals_un_transtaukskabju_daudzuma_samazinasana_p/
(146)   https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf     https://www.zm.gov.lv/public/ck/files/ZM/TP%20petijumi/Transtauksk%C4%81bes_p%C4%93t%C4%ABjums.pdf  
(147)     http://www.db.lv/razosana/partika/laima-sak-razot-vafeles-bez-transtaukskabem-danu-profesors-atklaj-jaunus-produktus-grekazus-24406  
(148)   https://www.spkc.gov.lv/upload/Petijumi%20un%20zinojumi/FINBALT/finbalt_2014_labotais.pdf  
(149)   https://www.spkc.gov.lv/upload/Petijumi%20un%20zinojumi/FINBALT/finbalt_2016_2.pdf  
(150)   https://www.spkc.gov.lv/upload/Petijumi%20un%20zinojumi/HBSC/uztura_paradumi_kermena_masa_berniem_lv_2007.pdf  
(151)   https://www.spkc.gov.lv/upload/Petijumi%20un%20zinojumi/HBSC/hbsc_2013_2014_aptaujas_rez.pdf  
(152)     http://www.vetzuursamenstelling.nl/download/MVO_Taskforce-eindrapportage-2010.pdf  
(153)     http://www.vetzuursamenstelling.nl/download/MVO_Taskforce-eindrapportage-2010.pdf  
(154)   http://www.vetzuursamenstelling.nl/Partijen/index.html  
(155)     http://www.vetzuursamenstelling.nl/download/MVO_Taskforce-eindrapportage-2010.pdf  
(156)   http://www.vetzuursamenstelling.nl/Partijen/index.html  
(157)     http://www.vetzuursamenstelling.nl/download/MVO_Taskforce-eindrapportage-2010.pdf
(158)     http://www.vetzuursamenstelling.nl/download/MVO_Taskforce-eindrapportage-2010.pdf  
(159)     http://www.vetzuursamenstelling.nl/download/MVO_Taskforce-eindrapportage-2010.pdf
(160)     http://www.vetzuursamenstelling.nl/download/MVO_Taskforce-eindrapportage-2010.pdf
(161) Or download here: https://www.researchgate.net/publication/257730530_Analysis_of_C181_cis_and_trans_fatty_acid_isomers_by_the_combination_of_gas-liquid_chromatography_of_44-dimethyloxazoline_derivatives_and_methyl_esters  
(162)   http://mvo.nl/vettefeiten  
(163)     http://www.vetzuursamenstelling.nl/download/MVO_Taskforce-eindrapportage-2010.pdf
(164)     http://www.vetzuursamenstelling.nl/download/MVO_Taskforce-eindrapportage-2010.pdf
(165)     http://www.vetzuursamenstelling.nl/download/MVO_Taskforce-eindrapportage-2010.pdf
(166)   http://www.mvo.nl/media/gezondheid/20141020_actieplan_mvo_imace_nl___wijzigingen_werkgroep.pdf  
(167)   http://www.rivm.nl/Documenten_en_publicaties/Wetenschappelijk/Tabellen_grafieken/Leefstijl_Voeding/NEVO/Samenstelling_vetzuurclusters_NEVO_online_2016/Download/Samenstelling_vetzuurclusters_NEVO_online_2016.org  
(168)   http://nevo-online.rivm.nl/Default.aspx  
(169)   https://www.researchgate.net/profile/Elisabeth_Temme/publication/221800312_Impact_of_fatty_acid_food_reformulations_on_intake_of_Dutch_young_adults/links/0fcfd50ea945d2a3ce000000.pdf  
(170)     http://www.rivm.nl/dsresource?objectid=f5a9b5c7-a14a-44e1-839b-87cebd52695c&type=org&disposition=inline  
(171)     https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf  
(172)     http://www.vetzuursamenstelling.nl/download/MVO_Taskforce-eindrapportage-2010.pdf  
(173)   https://research.vu.nl/ws/portalfiles/portal/24510456  
(174)   https://www.researchgate.net/profile/Elisabeth_Temme/publication/221800312_Impact_of_fatty_acid_food_reformulations_on_intake_of_Dutch_young_adults/links/0fcfd50ea945d2a3ce000000.pdf  
(175)       http://www.vetzuursamenstelling.nl/download/MVO_Taskforce-eindrapportage-2010.pdf
(176)

      http://ec.europa.eu/eurostat/statistics-explained/index.php/Cardiovascular_diseases_statistics  

(177)       http://nevo-online.rivm.nl/Default.aspx  
(178)   http://www.rivm.nl/Documenten_en_publicaties/Wetenschappelijk/Tabellen_grafieken/Leefstijl_Voeding/NEVO/NEVO_online_2016_achtergrondinformatie/Download/NEVO_online_2016_achtergrondinformatie.org  
(179)     https://www.cbs.nl/nl-nl/achtergrond/2014/33/achtergrondinformatie-en-handelsstromen--palmolie--  
(180)   http://www.taskforceduurzamepalmolie.nl./uploads/media/TaskForceDuurzamePalmolie-FinalReport_2015.pdf  
(181)    COMMISSION STAFF WORKING DOCUMENT, Results of the Commission's consultations on 'trans fatty acids in foodstuffs in Europe. European Commission 2015 https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf ; p. 31
(182) Bruce W. et al (2012) Reformulation for healthier food: a qualitative assessment of alternative approaches, https://www.researchgate.net/publication/254384473_Reformulation_for_healthier_food_a_qualitative_assessment_of_alternative_approaches
(183) Dziennik Ustaw 28/06/2012 http://isap.sejm.gov.pl/DetailsServlet?id=WDU20120000728  
(184) Rozporządzenie Rady Ministrów 4/08/2016 w sprawie Narodowego Programu Zdrowia na lata 2016–2020. http://dziennikustaw.gov.pl/DU/2016/1492/1 p. 13. Interview with representative of the National Food and Nutrition Institute on 29/06/2017
(185) Interview with the Polish Federation of Food Industry (PFPZ)
(186) Interview with the Polish Federation of Food Industry (PFPZ)
(187) Żbikowska, Anna et al (2006), Quality of Shortenings Available on the Home Market, Rocz Panstw Zakl Hig 57 (2), pp. 133-142.
(188) Żbikowska, Anna and Krzysztof Krygier (2011), Changes in the Fatty Acids Composition, Especially Trans Isomers, and Heat Stability of Selected Frying Fats Available on the Polish Market in the Years 1997 and 2008, Pol. J. Food Nutr. Sci., Vol. 61, No. 1, pp. 45-49 http://journal.pan.olsztyn.pl/?p=rec&s_rok=2011&s_numer=1
(189)   http://www.margaryna.com  
(190)   http://www.pokochajolejrzepakowy.eu  
(191)   https://www.jemdrugiesniadanie.pl/
(192) Choices International Foundation (2013), Product Criteria for Poland Ver. 2.5, https://www.choicesprogramme.org/public/criteria/choices_product_criteria_v2-5_poland_130201.pdf  
(193) Bruce W. et al (2012) Reformulation for healthier food: a qualitative assessment of alternative approaches, https://www.researchgate.net/publication/254384473_Reformulation_for_healthier_food_a_qualitative_assessment_of_alternative_approaches , p. 14
(194)    Portalspozywczy.pl (2017), Bielmar: Polacy coraz częściej przekonują się o walorach tłuszczów roślinnych, http://www.portalspozywczy.pl/zboza/wiadomosci/bielmar-polacy-coraz-czesciej-przekonuja-sie-o-walorach-tluszczow-roslinnych,142324.html  
(195) Okręglicka, K, H Mojska, A. Jarosz, M. Jarosz (2017). Fatty acid composition including trans isoforms in selected food fats available on Polish market. Żyw. Człow. Metab. 44 (1), 10-13.
(196)     https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf , p 12
(197)     https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf , p 12
(198)     https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf , p. 36
(199)    Żbikowska, Anna and Krzysztof Krygier (2011), Changes in the Fatty Acids Composition, Especially Trans Isomers, and Heat Stability of Selected Frying Fats Available on the Polish Market in the Years 1997 and 2008, Pol. J. Food Nutr. Sci., Vol. 61, No. 1, pp. 45-49 http://journal.pan.olsztyn.pl/?p=rec&s_rok=2011&s_numer=1
(200)     https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf , p. 11
(201)     https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf , p. 19-20
(202)      Micha R., Khatibzadeh S., Shi P., Fahimi S., et al., Global, regional, and national consumption levels of dietary fats and oils in 1990 and 2010: A systematic analysis including 266 countryspecific nutrition surveys. BMJ 2014, 348, g2272. [ PubMed ]
(203)    Martin-Saborido et al (2016),Public health economic evaluation of different European Union–level policy options aimed at reducing population dietary trans fat intake, American Journal of Clinical Nutrition, p. 1218-1226 no. 5 vol. 104 and Online Supplemental Material.
(204)       https://www.palmoilandfood.eu/sites/default/files/Anna %C5%BBbikowska - TFA in Europe and Poland in particular.pdf citing http://dx.doi.org/10.1080/07315724.2014.942472  
(205)     https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf , pp. 24-25
(206)    Portalspozywczy.pl (2017), Bielmar: Polacy coraz częściej przekonują się o walorach tłuszczów roślinnych, http://www.portalspozywczy.pl/zboza/wiadomosci/bielmar-polacy-coraz-czesciej-przekonuja-sie-o-walorach-tluszczow-roslinnych,142324.html
(207) Interview with the Polish Federation of Food Industry (PFPZ)
(208) M. Jarosz, Normy żywienia dla populacji polskiej – nowelizacja. IZŻ 2012, http://www.izz.waw.pl/attachments/article/33/NormyZywieniaNowelizacjaIZZ2012.pdf
(209) Interview with the Polish Federation of Food Industry (PFPZ)
(210)       https://www.palmoilandfood.eu/sites/default/files/Anna %C5%BBbikowska - TFA in Europe and Poland in particular.pdf
(211)    Portalspozywczy.pl (2017), Bielmar: Polacy coraz częściej przekonują się o walorach tłuszczów roślinnych, http://www.portalspozywczy.pl/zboza/wiadomosci/bielmar-polacy-coraz-czesciej-przekonuja-sie-o-walorach-tluszczow-roslinnych,142324.html
(212) Rosiak E. (2015), The Consumption of Fats in Poland and the European Union, Scientific Journal Warsaw University of Life Sciences, SGGW,     http://www.wne.sggw.pl/czasopisma/pdf/PRS_2016_T16(31)_z2.pdf p. 283
(213) Calculations carried and provided by the Independent Unit of Economics of Food and Nutrition, The National Food and Nutrition Institute based on Central Statistical Office data on consumption patterns and food content data from Kunachowicz H., Nadolna I., Przygoda B., Iwanow K.: Tabele składu i wartości odżywczej żywności. Wydawnictwo Lekarskie PZWL, Warszawa, 2005.
(214)      Eliander et al (2015), Intake and sources of dietary fatty acids in Europe: Are current population intakes of fats aligned with dietary recommendations?,     https://www.ncbi.nlm.nih.gov/pmc/articles/PMC4736684/
(215)      GUS, Rynek Wewnętrzny (various annual editions), http://stat.gov.pl/obszary-tematyczne/ceny-handel/handel/rynek-wewnetrzny-w-2015-r-,7,21.html  
(216)      Eurostat
(217)     https://www.admin.ch/opc/de/classified-compilation/20050165/201401010000/817.022.105.pdf  
(218)     https://www.admin.ch/opc/de/classified-compilation/20143412/201705010000/817.022.17.pdf  
(219)   https://www.admin.ch/opc/it/official-compilation/2015/3403.pdf  
(220)    Scheeder & Colombani (2009). Trans fatty Acid content of Selected Swiss Products: the TransSwissPilot Study in the Journal of Food Composition and Analysis.
(221)       http://www.coop.ch/pb/site/common2/get/documents/coop_main/elements/Gesund%20geniessen_2013/ _pdf/Studienberichte/Studienbericht_VI_it.pdf  
(222)     https://www.gov.uk/government/publications/sacn-update-on-trans-fatty-acids-2007  
(223)     https://responsibilitydeal.dh.gov.uk/wp-content/uploads/2012/01/Artificial-trans-fats-advice-Final.pdf  
(224)       http://www.gov.scot/Resource/0042/00421385.pdf  
(225)       http://www.gov.scot/Resource/0049/00497558.pdf  
(226)   https://responsibilitydeal.dh.gov.uk/progress-to-date/  
(227)     https://responsibilitydeal.dh.gov.uk/wp-content/uploads/2015/02/Food-pledges-annual-update-questions-2014-2015-FINAL.pdf  
(228)   https://responsibilitydeal.dh.gov.uk/  
(229)   https://www.gov.uk/government/uploads/system/uploads/attachment_data/file/167972/Nutrient_analysis_of_eggs_Summary_Report.pdf  
(230)     http://www.foodstandards.gov.scot/sites/default/files/854-1-1588_Report_of_Analysis_of_Trans_fatty_acids_in_fats_FINAL.pdf  
(231)     https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf  
(232)   https://responsibilitydeal.dh.gov.uk/pledges/pledge/?pl=10#_ftn1  
(233)     https://responsibilitydeal.dh.gov.uk/wp-content/uploads/2012/01/Artificial-trans-fats-advice-Final.pdf  
(234)       https://www.researchgate.net/publication/254384473_Reformulation_for_healthier_food_a_qualitative _assessment_of_alternative_approaches  
(235)       https://www.gov.uk/government/uploads/system/uploads/attachment_data/file/167938/Summary_Report.pdf
(236)       https://www.gov.uk/government/uploads/system/uploads/attachment_data/file/167941/spreadsheet_of_fatty_acid_data.XLS  
(237)       https://www.gov.uk/government/publications/nutrient-analysis-of-fish  
(238)       https://www.gov.uk/government/publications/nutrient-analysis-of-eggs  
(239)     https://www.researchgate.net/publication/295864106_Saturated_and_trans-fatty_acids_in_UK_takeaway_food  
(240)       https://responsibilitydeal.dh.gov.uk/progress-to-date/  
(241)     https://www.gov.uk/government/publications/diet-and-nutrition-survey-of-infants-and-young-children-2011  
(242)     https://www.gov.uk/government/statistics/national-diet-and-nutrition-survey-results-from-years-1-to-4-combined-of-the-rolling-programme-for-2008-and-2009-to-2011-and-2012  
(243)   http://tna.europarchive.org/20110116113217/http://www.food.gov.uk/multimedia/pdfs/lidnsvol02  
(244)     https://www.gov.uk/government/statistics/national-diet-and-nutrition-survey-results-from-years-1-to-4-combined-of-the-rolling-programme-for-2008-and-2009-to-2011-and-2012  
(245)     https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf  
(246)   http://tna.europarchive.org/20120419000433/http://www.food.gov.uk/multimedia/pdfs/board/fsa071207.pdf  
(247)     https://www.gov.uk/government/statistics/national-diet-and-nutrition-survey-results-from-years-1-to-4-combined-of-the-rolling-programme-for-2008-and-2009-to-2011-and-2012  
(248)     https://ec.europa.eu/food/sites/food/files/safety/docs/fs_labelling-nutrition_trans-fats-oswp_en.pdf  
(249)   http://tna.europarchive.org/20120419000433/http://www.food.gov.uk/multimedia/pdfs/board/fsa071207.pdf  
(250)

    http://ec.europa.eu/eurostat/statistics-explained/index.php/Cardiovascular_diseases_statistics  

(251)   https://www.gov.uk/government/uploads/system/uploads/attachment_data/file/594361/NDNS_Y1_to_4_UK_report_full_text_revised_February_2017.pdf  
Top

United States

Policy status

Existing

Proposed/ considered

Legislation

X

Voluntary measures

X

Labelling

X

Consumer information

X

Description of existing measure(s)

Type of measure

Legislation/voluntary measures/labelling/consumer information

Description of measure

(if legislation paste exact text of legislation)

Table 0.Mandatory ban. In November 2013 the FDA made a preliminary determination thatpartly hydrogenated oils are not Generally Recognised as Safe (GRAS) for use in foods, followed by a 60 day public comment period. Then, in June 2015, the U.S. Food and Drug Administration (FDA) announced thatpartly hydrogenated oils were no longer generally recognized as safe and that their use in foods would be phased out of the U.S. market by June 2018. 1

Table 1.Release of 2005 Dietary Guidelines for Americans which included recommendations on trans fat intake.

Table 2.Mandatory nutrition labelling. Since 2006, USA manufacturers must list trans fats on the nutritional fact panel of foods and certain dietary supplements (FDA issued a final rule on July 11, 2003).  2 More specifically, they must list the quantity of trans fatty acids in a serving of the food product (but not % of daily value as at this time there was no scientific basis for trans fat consumption).

Figure 0.On December 1, 2014, the FDA also published a final rule for menu labelling requirements which specified that written nutritional information (including trans fat content) for standard menu items be available for consumers who ask to see it, and that on menus and boards, and that a statement regarding the availability of the nutritional information is present on menus and menu boards. 3  

Figure 1.On May 20, 2016, the FDA announced new Nutrition Facts labels for packaged foods to reflect new scientific information. Among other things, including design changes, calories from fat is being removed (although trans fat content must still be listed). 4  

State level initiatives:

In recognition of the limits of federal regulation and a growing concern regarding the health risks of trans fat consumption, state and local governments began introducing a variety of legislative proposals to restrict the use of artificial trans fats from 2003. California was the first US state to ban restaurants from using trans fats:

California trans fat ban. Approved on July 25, 2008, this requires all food facilities in the state, except public school cafeterias, to stop using artificial trans fats by January 2011. 5 It was expected to affect more than 88,000 restaurants, bakeries, delicatessens, cafeterias and other food service facilities.

Many other states have or are presently considering statewide trans fat bans. Examples are Connecticut, Florida, Hawaii, Illinois, Maryland, Massachusetts, Michigan, Mississippi, New Hampshire, New Jersey, New Mexico, New York, Oregon, Rhode Island, South Carolina, Tennessee, Vermont, and Virginia, among others. 6

Local level initiatives:

Figure 2.Legislation banning the use of artificial trans fats in restaurants has been passed in New York City, Albany, Nassau and Westchester Counties in New York; King County (Seattle), Washington; Philadelphia, Pennsylvania; Stamford, Connecticut; Boston, Brookline, and Cambridge, Massachusetts; and Baltimore and Montgomery County, Maryland. 7 The New York City ban acted as a catalyst for other jurisdictions. The New York City action was adopted in Dec 2006 and came into effect in July 2008 8 . It restricted all food service establishments from using, storing or serving food that contained PHVO with a total of 0.5g or more trans fats per serving.

Figure 3.

Table 3.Voluntary agreements

Figure 4.In 2004, Tiburon, California (pop. 8,962) became the first community in the US to eliminate the use of artificial trans fats in restaurants pursuant to a voluntary agreement - all restaurants in Tiburon vowed to switch to cooking with trans fat-free oils. In February 2008, San Francisco began implementing a voluntary artificial trans fat elimination programme.

Figure 5.In Multnomah County (Portland), Oregon, public health officials and the Oregon Restaurant Association collaborated to create a program to voluntarily phase out artificial trans fat use in restaurants and educate consumers about healthier eating. 9

Scope of measure

NYC action – Any food in a food service establishment that contained PHVO with a total of 0.5g or more trans fats per serving.

Labelling measure – all packaged foods and dietary supplements.

PHO ban – all food products.

FBOs covered

NYC action is one of the few actions that targets food prepared outside of the home. It covers all food service establishments using, storing or serving food. 10

Derogations

(e.g. low fat products, local products)

Foods prepared outside of the home are unaffected by labelling requirements. 11 Some pre-packaged foods and dietary supplements are also exempt if: they come from a retailer with annual gross sales of not more than $500,000, or with annual gross sales of foods or dietary supplements to consumers of not more than $50,000; or if the person claiming the exemption employs fewer than an average of 100 full-time equivalent employees and fewer than 100,000 units of that product are sold in the United States in a 12-month period. 12 In addition, products that have less than 0.5g of trans fats per serving don’t have to be labelled as containing trans fats.

For menu labelling requirements, chain retail food establishments with less than 20 locations are exempt.

For thepartly hydrogenated oil ban:

Table 4.“any interested party may seek food additive approval for one or more specific uses ofpartly hydrogenated oils with data demonstrating a reasonable certainty of no harm of the proposed use(s).” 13 The Grocery Manufacturer’s Association argued in a petition to the FDA (filed on October 1, 2015) that continued low-level use ofpartly hydrogenated oils (1.5% of energy per day) is safe and should be allowed. Sources ofpartly hydrogenated oil that should be allowed includepartly hydrogenated oils manufactured from the following vegetable oils: soy, cottonseed, coconut, canola, palm, palm kernel and sunflower oils, or blends of these oils. Acceptable small-scale usage includes addingpartly hydrogenated oil as an anti-caking, anti-dusting and free flow agent; a lubricant or release agent; an emulsifier; and a processing aid or solvent for fat soluble ingredients. Arguably submitting such a proposal is a gamble because the GMA estimates that the formal review process for its petition could take two or more years – if it is rejected they will have one year to meet compliance deadline. No response has yet been issued by the FDA. 14

Table 5.The use ofpartly hydrogenated oils as raw materials used to synthesise other ingredients is also outside the scope of thepartly hydrogenated oil ban, as are ingredients that contain only naturally occurring trans fats.

Table 6.It also does not include the use of conjugated linoleic acid (CLA) as a food ingredient, or partially hydrogenated methyl ester of rosin as these do not fit thepartly hydrogenated oil definition. 15

Share of SMEs involved

(in case of voluntary measures)

No information found.

Length and characteristics of transition period

After the 2015 announcement thatpartly hydrogenated oils are not Generally Recognised as Safe (GRAS), the FDA set a compliance period of three years to allow food companies to either reformulate products withoutpartly hydrogenated oils and/or petition the FDA to permit specific uses ofpartly hydrogenated oils. 16

Table 7.Food labelling: In May 2016, the U.S. Food and Drug Administration finalized the Nutrition Facts and Supplement Facts Label and Serving Size final rules and set the compliance date for July 26, 2018, with an additional year to comply for manufacturers with annual food sales of less than $10 million. After those rules were finalized, industry and consumer groups provided the FDA with feedback regarding the compliance dates. After careful consideration, the FDA determined that additional time would provide manufacturers covered by the rule with necessary guidance from FDA, and would help them be able to complete and print updated nutrition facts panels for their products before they are expected to be in compliance. On June 13, 2017, the FDA announced its intention to extend the compliance date for the Nutrition Facts Label final rules. The FDA will provide details of the extension through a Federal Register Notice at a later time. 17 The framework for the extension will be guided by the desire to give industry more time and decrease costs, balanced with the importance of minimizing the transition period during which consumers will see both the old and the new versions of the label in the marketplace. 

Table 8.For the menu labelling requirements, the original compliance date was December 2016 (2 years after final rule), however a new final rule in December 2016 changed the compliance date to May 5, 2017. This has subsequently been updated to May 7, 2018. 18  

Table 9.California trans fat ban: introduced in July 2008, restaurants are required to use oils, margarine, and shortening with less than half a gram of trans fat per serving by January 1, 2010 for all food items except deep-fried baked goods. Donuts and other deep-fried baked goods will be prohibited from containing artificial trans fat after January 1, 2011. 19

Table 10.New York trans fat ban: the regulation allowed restaurants six month (by July 1, 2007) to switch to oils, margarines, and shortening used for frying and spreading, and eighteen months (by July 1, 2008) to replace artificial trans fat used in baking and deep-frying of bakery goods 20 .

Arrangements for measure enforcement and compliance monitoring

California trans fat ban: for enforcement purposes, every food facility must maintain the label of any food that is, or contains, any fat, oil, or shortening, and is stored, distributed, served by, or used in the preparation of food by the facility. Health inspectors then review the labels when they conduct regular food safety inspections. Violation of the law is punishable by a fine of between $25.00 to $1,000.00. 21

New York trans fat ban: violations of the regulation don’t count towards an establishment’s food service inspection score, but violations will be posted on the health department’s website and are subject to re-inspection. Violators are subject to fines of $200.00 to $2,000.00, depending on an establishment’s number of prior violations. 22

Rate of compliance/ participation and favouring conditions

(in case of voluntary measures)

New York trans fat ban: Based on inspections after the first phase of the ban, the City estimated that 94% of affected food service establishments were in compliance. 23

Tests used to assess trans fats content

There are two methods approved by the FDA for measuring fatty acid composition in the food on food labels (April 2007 article):  24

Table 11.Gas chromatography, Association for Official Analytical Chemists method 996.06; and

Table 12.Attenuated total reflection–Fourier transform infrared spectroscopy (ATR-FTIR), American Oil Chemists’ Society method Cd 14d-96.

Steps taken to raise consumer awareness

Table 13.A guidance document was provided in 2005 to coincide with the labelling legislation. The aim was to help consumers better interpret the new food labelling and make more conscious food choices. The document was produced by the US Department of health and Human Services and the US Department of Agriculture. 25  

Table 14.In addition, one report found that reporting on trans fats has been persistent over many years, but sharply peaked about the same time as Federal regulations made it mandatory to label the trans fats content of foods. 26

Table 15.Through the labelling regulation, the FDA regulates the statements that food companies are allowed to make on product packages regarding the level of particular nutrients in food. Prior to 2004, such claims were rarely made, but food and beverage products with a “no trans fats” claim showed a marked upward trend beginning in 2004. FDA issued the regulation requiring disclosure of trans fats on the nutrition label in 2003 (to be implemented in 2006). Expressed as a percentage of all food and beverage products introduced, those with a “no trans fats” claim became an increasingly important component of all product introductions, peaking at 10.9 percent in 2009. Compared with the number of other commonly used nutrient claims made on food packages, “no trans fats” claims surpassed low/no/reduced cholesterol claims in 2004 and low/no/reduced sugar claims in 2005. Moreover, in 2008, the percentage of new products with a “no trans fats” claims exceeded those with no/low/reduced fat claims for the first time (see appendix 5 for graph). 27

Guidance provided to affected businesses

Guidance provided by the FDA for small businesses: https://www.fda.gov/Food/GuidanceRegulation/GuidanceDocumentsRegulatoryInformation/ucm053479.htm .

The FDA also have a general food labelling guide for industry: https://www.fda.gov/Food/GuidanceRegulation/GuidanceDocumentsRegulatoryInformation/LabelingNutrition/ucm2006828.htm

And a labelling guide for restaurants and retail establishments selling away-from-home foods: https://www.fda.gov/Food/GuidanceRegulation/GuidanceDocumentsRegulatoryInformation/ucm053455.htm

New York trans fat ban: to assist affected restaurants with compliance, the New York City Department of Health and Mental Hygiene created a Trans Fat Help Centre, including a hotline and website. They also held many workshops to teach food preparers how to adapt recipes to substitute trans fat-free oils for partially hydrogenated vegetable oils and vegetable shortening and distributed educational brochures.

Effectiveness of the measure

See section 1.2 below for impact of measures in detail.

Describe (if any) other measures that are currently being considered

No information found.

TFAs in foods and diets

TFAs content in food

(by product, if available please distinguish by trans fats source – iTFA and rTFA, andpartly hydrogenated oil)

See Appendix 4 for info. on contribution of certain foods to total trans fat intake for Americans (1994-1996).

Variation in TFAs content in food after implementation of measure

Results from multiple studies show clear decrease in trans fats content of food after measures introduced:

Table 16.The most recent data on trans-fat intake in the US (2012) suggests that over two thirds of trans fats from industrially produced partially hydrogenated oils have already been taken out of the American diet. 28  

Table 17.Where trans fats labelling on packaged foods was mandated in 2006, a 49% reduction (1.9 to 0.9 g/serving) in the trans fats content was reported in an assessment of 360 packaged foods between 2007 and 2011. Some products (e.g., doughnuts, French fries) were reformulated much more rapidly compared with other categories (e.g., popcorn). 29

Table 18.Another study found a similar decrease in the trans fat content of food over time. 30 This study looked at the changes in trans fat and saturated fat in major brand name US supermarket and restaurant foods that were reformulated between 1993-2006 and 2008-2009. They identified 83 reformulated products (58 supermarket foods and 25 restaurant foods). Trans fat content was reduced to less than 0.5 g per serving in 95% of the supermarket products analysed and 80% of the restaurant products analysed; mean absolute reductions were 1.8 g per serving (84 percentage points) and 3.3 g per serving (92 percentage points), respectively.

Table 19.Another study looking at the fat contents of US snack foods in response to mandatory trans fat labelling analysed the composition data of over 5000 chip and cookie products introduced for sale between 2001 (pre-labelling) and 2009 (post-labelling). Results showed that the shares of chip and cookie introductions containing partially hydrogenated vegetable oil declined by 45 and 42 percentage points, respectively. 31

Table 20.Another study looked at the average trans fat contents of all new product introductions and for those containing positive levels of trans fats (see Annex 7 for a breakdown) – results showed that it is relatively rare for any new product introductions to contain trans fats and when products do contain trans fat, average trans fat content is a relatively small share of recommended fat intake. 32

Table 21.However, while the evidence collected by FDA show that many foods have been reformulated to remove partly hydrogenated oils, there are two main food categories with partly hydrogenated oils that remain on the market: foods for which consumers have alternatives containing lower levels of trans fat (e.g., cookies, baked goods, microwave popcorn, frozen pizza, frozen pies, shortening) and foods for which consumers have limited or no choice of an alternative containing a lower level of trans fat (e.g., ready-to-use frostings, stick margarine). 33

Table 22.See Additional References: graph shows the decrease in the amount of trans fats found in products with the highest trans fat content (2005-2010).

New York ban:

Table 23.Comparison of trans fats and saturated fat content of fast-food customer purchases in NYC restaurants pre-2007 and 2009 (after NYC ban) showed that there was a statistically significant net decrease in combined trans fats and saturated fat content in food purchases ((1.86 g overall mean decrease (13.7 to 11.9 g)) attributed to reformulation and new offerings; mean trans fats content per purchase decreased by 2.4 g (from 2.9 to 0.5 g), whereas mean saturated fat content per purchase increased by 0.55 g (10.8 to 11.4 g) after the implementation of the action. The observed decreases in the trans fats content of food purchases benefited similarly customers living in high- and low-income neighbourhoods. 34 In addition, purchases with zero grams of trans fat increased from 32% to 59%.

Table 24.In 2008, when the New York City restaurant ban was in full effect, estimated restaurant use of artificial trans fat for frying, baking, or cooking or in spreads had decreased from 50% to less than 2%. Replacement fats also tended to be healthier (in major restaurant chains total saturate fat plus trans fat in French fries decreased by over 50%). 35

Future projections of trans fats content in food (e.g. a major FBO pledged to reduce trans fats content in own products)

No information found.

Trans fats intake

(if available please report data by trans fats source – industrial trans fats and ruminant trans fats, age and socio-economic group, and partly hydrogenated oil contribution)

Mean daily intake of TFAs from intrinsic sources (i.e. meat, milk, dairy and other products), is 1.042 g/day (0.46 %en/day) among the US 2+ y. 36

Variation in trans fats intake after implementation of measure

Multiple references show clear decrease in trans fats intake after measures introduced:

Table 25.At the time of the 2003 labelling proposed rule, the FDA estimated that the daily mean intake of TFAs from partly hydrogenated oils among adults 20 years of age and older was 4.6g/day (2% energy/day) and total partly hydrogenated oil from both animal and partly hydrogenated oil sources was 5.8g/day (2.6% energy/day). 37 In 2010, the FDA estimated the mean trans fat intake for the US population aged 2 years or more who consumed one or more of the processed foods identified as containing partly hydrogenated oils to be 1.3g/p/d (0.6% of caloric intake). This suggests a significant decrease in mean dietary intake of industrially produced trans fats since the July 2003 final rule.

Table 26.In 2010, the FDA also prepared an estimate for a high-intake scenario by assuming that trans fat was present at the highest level observed for all foods within a particular food category based on label surveys or analytical data. For this scenario, they estimated the mean intake to be 2.7 g/p/d (1.2 percent of energy) and the 90th percentile intake to be 5.4 g/p/d (2.4 percent of energy) for the U.S. population aged 2 years or more.

Table 27.In 2012, the FDA, using survey data, updated the 2010 intake estimate of trans fats from partly hydrogenated oils for those food categories that were identified as major contributors to the dietary intake of trans fat, as well as for those categories where we have noted progress in reformulation. For this most recent estimate, they calculated the mean intake to be 1.0 g/p/d (0.5 percent of energy) and the 90th percentile intake to be 2.0 g/p/d (1.0 percent of energy) for the U.S. population aged 2 years or more.

Table 28.The FDA also prepared an estimate for a high-intake scenario by assuming that trans fat was present at the highest level observed for all foods within a particular food category based on the label survey. For this scenario, they estimated the mean intake to be 2.1 g/p/d (1.0 percent of energy) and the 90th percentile intake to be 4.2 g/p/d (1.9 percent of energy) for the U.S. population aged 2 years or more. The change since 2010 is not significant but it does suggest a continued downward trend. Specifically, there was a decrease observed in the intake of trans fat in the refrigerated dough, savory snacks, and frozen pizza categories, consistent with the lower levels of trans fat observed in the label survey.

Table 29.Although trans fat intake has decreased overall since the 2003 trans fat intake estimate, individuals with certain dietary habits may still consume high levels of trans fat from certain brands or certain types of food products (e.g., refrigerated biscuits, ready-to-use frostings, certain brands of frozen pizzas, and certain brands of microwave popcorn), which could contain several grams trans fat per serving. As noted previously, for those consumers who consistently choose these products, the daily intake of added trans fat is approximately twice as high as that for the consumer who does not choose only the foods containing the highest levels of trans fat within a particular category (2.1 g/p/d vs. 1.0 g/p/d).

Table 30.Additionally, scientists at the CDC recently studied the change in levels of four major trans fatty acids in the blood of U.S. non-Hispanic white adults from 2000 to 2009, and reported a 58 percent average decrease during that timeframe. 38

Information on national consumer awareness of TFAs issues (e.g. terminology, impact of food choice)

The American Heart Association conducted an online consumer research survey in the spring of 2006 with a national sample of 1000 adults 18 to 65 years of age. Results of this market research indicate that when asked if they had heard of the term “trans fats,” 84% of the respondents said yes. However, close to half (47%) of the respondents lacked understanding of the health effects of trans fats. 39 Results were even lower for partly hydrogenated oils (68% had heard of the term and 67% lacked understanding). Fewer than half of those surveyed could identify any one food as typically containing trans fats, even when asked to choose from a list of foods. The top food identified as containing trans fats was doughnuts (44% of consumers). This compares with the higher knowledge that consumers exhibited regarding foods they thought contained saturated fats. Approximately 70% of consumers surveyed could correctly identify at least 3 foods containing saturated fats from the same list of foods.

Measure impacts

Business responses and costs

Number of business that reformulated their products

(if possible differentiate by large and small companies)

In New York City, by 2008 an estimated 98 percent of restaurants were not using ingredients containing industrially-produced trans fat, compared with 50 percent in 2005. 40 Many food manufacturers have reformulated their products in the United States to address the need for trans fatty acid reduction. According to the Grocery Manufacturers Association and/or company press releases, as of January 2007, food manufacturers that have made significant efforts to reduce or eliminate partially hydrogenated oils/fats from their product portfolios include Campbell Soup Co, ConAgra Foods, General Mills, The Hershey Company, The J.M. Smucker Co, Johnson & Johnson, Kellogg Co, Kraft Foods, Nestle, PepsiCo, Proctor & Gamble, Sara Lee Corp, The Schwan Food Co, and Unilever. 41

Evidence of FBO sector facing specific challenges

Some comments as part of the call for comments in response to the 2015 final determination regarding partially hydrogenated oils identified the following challenges:

Table 31.The oil industry will need a minimum of three years to fully commercialise the various oils capable of replacing partly hydrogenated oils in food; and it could take several additional years to reformulate after the development of the new oils.

Table 32.The food industry would prefer to replace partly hydrogenated oils with domestically produced vegetable oils (e.g., high-oleic soybean oil) rather than palm oil, but time is needed to commercialize these options. Some comments stated that sudden demand for palm oil would pose challenges for obtaining sustainably-sourced palm oil, as the current market would likely not be able to meet the demand.

Table 33.Other comments indicated that the time needed for removal ofpartly hydrogenated oils is dependent on the product category. A number of comments indicated that the baking industry will have difficulty replacing the solid shortenings used in bakery products. Other comments indicated difficulties in the categories of cakes and frostings, fillings for candies, chewing gum, snack bars, and as a component of what the comments termed minor use ingredients, such as for use in coatings, anti-caking agents, encapsulates, emulsifiers, release agents, flavors, and colors.

Table 34.Other challenges topartly hydrogenated oil removal include the need for new transportation infrastructure (e.g., terminals, rail cars, barges, and storage facilities), packaging changes, and disruption of international trade.

Table 35.A number of comments noted challenges faced by small businesses, such as access to alternative oils, inability to compete for supply, fewer resources to commit to research and development, and effect of ingredient costs on growth of the business.

Table 36. Another comment stated that small businesses would need at least 5 years due to their limitations in research and development expertise, inability to command supply of scarce ingredients, and economic pressures of labelling changes.

Comments from the American Institute of Baking (AIB): 42  

Challenges faced by the baking sector in moving to trans fatty free solutions:

Table 37.Finding substitutes that have the same functionality e.g. extending shelf-life, improving texture. The challenge is particularly large in the manufacture of cakes, cookies, biscuits, pie crusts, pastries and doughnuts.

Table 38.In the food service environment, restaurants and bakeries also have to go through extensive recipe reworking and product testing to ensure trans fat free products meet taste, texture and shelf life standards.

Table 39.Particular challenge related to finding trans fat-free shortenings without increasing saturated fat. In food manufacturing and food service, many companies that made a switch to trans fatty acid–free alternatives for their baked goods chose shortenings made with palm oil or butter.

The restaurant industry raised several objections to trans fat bans including:

Table 40.Customers would be dissatisfied with the taste and texture of trans fat free foods;

Table 41.National chain restaurants worried that local trans fat bans would interfere with their national product distribution systems or harm their nationwide brand image if products tasted differently in some states;

Table 42.The costs of switching to alternative fats were too onerous and would result in higher food costs being passed onto consumers, as well as a disproportionate burden being placed on small, independent restaurants;

Table 43.Restaurants would replace trans fats with products high in saturated fat; and

Table 44.A rejection was made on philosophical grounds, with the complaint that such laws are paternalistic and it is not the role of government to dictate restaurants’ business decisions and consumers’ food choices.

However, data shows that most of these concerns have been refuted. Consumers have apparently not missed the presence of trans fat in food restaurants; sales of French fries, donuts, and other fried, formerly trans-fat laden fast foods have not decreased significantly in the localities that have implemented trans fat bans; and the costs of switching to trans fat-free alternatives have not resulted in higher restaurant prices. In addition, trans fat-free alternatives have been readily available to restaurants because cooking oil and seed companies anticipated the shift away from hydrogenated oils years before trans fat bans went into effect. Companies began investing in research and accelerating production of trans fat-free alternatives in the 1990s, when the first major studies were released revealing the health risks of trans fat consumption. 43  

For which oils/fats was there a reduction in use and with what were they replaced?

The two most common partly hydrogenated oils currently used by the food industry are partially hydrogenated soybean oil and partially hydrogenated cottonseed oil. 44  

It is estimated that roughly 80% of the trans fats Americans consume is from partially hydrogenated vegetable oil. 45

A 2014 study specifically looking at cookies in the US and Canada found that 71% of US cookies contained more than one oil ingredient. 46 In the US, the main fat ingredient was PHVOs in 2006 but by 2012 it was palm oil. By 2012 only 8.3% of cookies in the US used PHVOs as the main oil ingredient. However, many of the shortenings - most of which were made up of hydrogenated fat in combination with another type of oil - included smaller quantities of PHVOs: in the US 31% included PHVOs. 47

Costs of changes in products and processes

(if possible differentiate by type of cost and include figures)

See Additional References for table of costs and benefits for labelling measures.

PHO removal: The FDA conducted an economic analysis, reported in the 2015 Final Determination regarding partially hydrogenated oils, which estimated the net present value over 20 years of quantified costs to the action will be USD$6.2 billion, with a 90 percent confidence interval of $2.8 billion to $11 billion. They estimate the net present value of 20 years of benefits to be $140 billion, with a 90 percent confidence interval of $11 billion to $440 billion. Expected NPV of 20 years of net benefits (benefits reduced by quantified costs) are $130 billion, with a 90 percent confidence interval of $5 billion to $430 billion. 48  See annex 2 for table of costs and benefits ofpartly hydrogenated oil removal.

A prior piece of work in 2013 by Bruns placed the total first year costs of eliminating partly hydrogenated oils from the food supply at $8 billion, with several hundred million in costs recurring in out-years. 49 This was made on the assumption that all products containing partially hydrogenated oils will require a reformulation and will also cost 2 percent more as a result of ingredient changes, and that consumers currently using partially hydrogenated oils must also learn new cooking methods and pay more for substitutes. The net present value of these costs over 20 years is about $12 billion at a 7 percent discount rate and $14 billion at a 3 percent discount rate. The document provided a breakdown by type of cost:

Costs for businesses:

Table 45.Reformulation. A major producer of processed foods reported that reformulating in less than a year cost $25 million for 187 product lines, or $134,000 per product, and after the reformulation the products were fully competitive, with no significant change in price, consumer acceptance, or shelf life. Furthermore, the study estimated that one-time product reformulation cost a total of $2.7 billion. If producers had two years to reformulate rather than one year, the one-time costs of reformulation would fall to $2.3 billion. With three years, the costs would fall to $1.3 billion. This drop in costs is because producers often reformulate products for their own reasons, and required reformulations are less expensive if they can be combined with planned reformulations. However allowing additional time for reformulation was calculated as reducing public health benefits more than reducing industry costs. (These cost estimates only consider processed, packaged foods that bear a Nutrition Facts label. However they estimate that reformulation costs for fast food and food prepared in restaurants, bakeries and other retail food establishments should be lower than for processed, packaged foods).

Table 46.Relabelling. The average cost of relabelling is about $7,000 per UPC if the change must be made in one year, according to the FDA relabelling model. This means that the one-time relabelling costs would be about $200 million. If producers had two years to relabel rather than one year, the one-time costs of relabelling would fall to about $60 million, because many label changes could be coordinated with planned label changes. With three years, the costs would fall to about $40 million.

Table 47.Expected price increases in products because of ingredient substitution. The 2006 Report of the Trans Fat Conference Planning group lists availability of substitute ingredients as one of the biggest concerns with reformulation. Although the report predicted that supplies of replacements would be readily available at similar prices four years after the report was written, we estimate the costs that would be incurred if substitute ingredients cost 50 percent more, and the partly hydrogenated oils used in packaged food currently account for 4 percent of the price consumers pay for food products, meaning that the total amount spent on these packaged foods would increase by 2 percent. Assuming a 2% increase, the study estimated a total economic cost of $340 million each year. The Net Present Value (NPV) of 20 years of increased product costs, discounted at 7 percent, is $3.6 billion. These costs are likely a low estimate as they do not include food products served in restaurants.

Costs to consumers include:

Table 48.Cost to consumers for changing recipes. Consumers spend about $120 million each year on vegetable shortening. Assuming that substitute ingredients cost them 50 percent more, consumers would have to spend $60 million more per year for the more expensive ingredients for their recipes. The NPV of 20 years of these increased costs, discounted at 7 percent, is $630 million. Substitute ingredients may require different cooking methods or recipes. If 50 million households currently cook or bake with partly hydrogenated oil-containing ingredients, and it takes an average of three hours to learn how to cook with replacement ingredients, then consumers would spend 150 million hours adjusting to the removal of partly hydrogenated oil-containing ingredients from the food supply. If this time is valued at the average hourly compensation of $31, then the cost of this adjustment would be $4.7 billion. The total cost to consumers for changing recipes would then be $5.3 billion.

Table 49.Consumers not being able to enjoy products and recipes that cannot be successfully reformulated. There may be some loss of consumer surplus as a result of their removal from the market. However, producers of vegetable shortening should be able to produce substitute shortenings that contain only fully hydrogenated and non-hydrogenated vegetable oils, because such products have been available in the past at a similar cost. We are unable to estimate a cost for this potential issue.

Another study by Cohen in 2014 provided a cost effectiveness value for the trans fat ban, namely the unit cost incurred by the ban per QALY gained. 50 They calculated a cost effectiveness value of between $16,000 to $35,000 per QALY.

Cost of understanding/learning the measure for FBOs

Information not found.

Consumer prices and choice

Evidence of changes in the price of reformulated products

See section on costs of products and processes above.

Evidence of price differences between products with iTFAs and alternatives

See section on costs of products and processes above.

A 2014 study looking at the changing trans fat content and price of cookies in the US and Canada concluded that price was significantly related to the presence of trans fat in cookies: trans-fat free cookies were more expensive than those with trans fats. 51 Median price per 100 grams was $US 0.75 (interquartile range: USD 0.46, USD 1.48) in US cookies containing trans fat as compared to USD 1.36 (interquartile range: USD 0.82, USD 2.66) in cookies without trans fat (p<.001).

Evidence of changes in the range, quality or taste of products available

One study looked at the percentage of successful new products with and without trans fats. 52 It found that trans fat-free products were more successful in 9 out of 16 food categories in which comparisons are possible (See Annex 6 for the breakdowns).

Evidence of changes in TFAs consumption

See above

Effect on consumer information and awareness

See above

Health effects

Evidence of benefits on consumer health

(if possible differentiate by age and socio-economic group)

The reformulation that has occurred because of the labelling rule achieved about 5/7 of the benefit of eliminating industrially produced trans fatty acids from the diet, preventing about 8,000 to 18,000 deaths per year. Elimination of industrially produced trans fatty acids from the diet would save an additional 3,000 to 7,000 lives from coronary heart disease annually according to CDC estimates. 53

Monetizing the lives saved, along with the value of the nonfatal illnesses and medical expenses prevented, yields an estimated benefit of $14.7 billion dollars per year, starting three years after the elimination of partially hydrogenated oils from the food supply. Over a 20-year period, eliminatingpartly hydrogenated oils from the food supply would generate benefits of about $117 billion discounted at 7 percent, or 242 billion discounted at 3 percent. Subtracting costs from benefits yields an estimated $105 billion in net benefits over 20 years, discounted at 7 percent, or $228 billion discounted at 3 percent: 54

However, using more recent research (a 2009 article in the European Journal of Clinical Nutrition) which updates the estimate of harm caused bypartly hydrogenated oils, the research team updated their estimates as follows:

Using this data, the total Net Present Value of 20 years of these benefits is about $399 billion. If only the benefits of the lowest estimate of 3,000 lives saved was counted, with no value placed on nonfatal illnesses prevented, the benefits would be $5.3 billion annually, generating a NPV of $42 billion. The research team tested the pessimistic assumption that all products would require a critical reformulation, with the extremely pessimistic assumption that the consumer price of packaged food withpartly hydrogenated oils would increase by 10 percent. In this case, the total NPV of costs of this action would be $28 billion. Subtracting these high costs from the low benefits of $42 billion gives net benefits of about $14 billion.

New York Trans fat ban: a June 2017 study found that between 2002 and 2013, there was an additional 6.2% decline in hospital admissions for myocardial infarction and stroke among populations living in counties with vs without trans-fatty acid restrictions. The decline in events reached statistical significance three or more years after restrictions were implemented. 55  

Evidence of change in saturated fats intake

A study 56 investigating levels of trans fat and saturated fat in major brand-name US supermarket and restaurant foods that were reformulated (83 products: 58 supermarket foods and 25 restaurant foods) showed that between 1993-2006 and 2008-2009, the amount of trans fat decreased, and 65% of the supermarket products and 90% of the restaurant products had levels of saturated fat that were lower, unchanged, or only slightly higher (<0.5 g per serving) than before reformulation. The average content of saturated fat in supermarket foods increased slightly owing to increases in one third of the products analyzed; the average content of saturated fat in restaurant foods actually decreased. Reductions in levels of trans fat nearly always exceeded any increase in levels of saturated fat; after reformulation, the overall content of both fats combined was reduced in 90% (52 of 58) of the supermarket products and 96% (24 of 25) of the restaurant products, with average total reductions of 1.2 g and 3.9 g per serving, respectively.

A second study also suggested that products with no trans fats are healthier overall. 57  Products reformulated to reduce trans fats content may be compensated by an increase in saturated fat to preserve the taste of the product. However, we find that in all categories except sweet spreads, the products with trans fats have more saturated fats and more calories than the products without trans fats. The study concluded that their research suggests that if the labeling regulations led companies to reformulate products to reduce trans fats, they did not compensate with higher levels of saturated fats, sodium, or calories (see Annex 8 for a breakdown).

Another study looking at the fat contents of US snack foods in response to mandatory trans fat labelling analysed the composition data of over 5000 chip and cookie products introduced for sale between 2001 (pre-labelling) and 2009 (post-labelling). 58 Despite a decrease in trans fat content, in cookies, there was an increase of 0·49 (98 % CI 0·01, 0·98) g in the average saturated fat content per 30 g serving and an increase of 9 (98 % CI 3, 15) % in the average ratio of saturated to total fat. No statistically significant changes in fat content were observed in chips. 59

New York Trans fat ban: Preliminary analyses suggest that replacement of artificial trans fat has resulted in products with more healthful fatty acid profiles. For example, in major restaurant chains, total saturated fat plus trans fat in French fries decreased by more than 50%. 60  

Another study also found that a statistically significant decrease in trans fat content of restaurant food was not combined with a commensurate increase in saturated fat. The final sample included 6969 purchases in 2007 and 7885 purchases in 2009. Overall, mean trans fat per purchase decreased by 2.4 g (95% CI, -2.8 to -2.0 g; P < 0.001), whereas saturated fat showed a slight increase of 0.55 g (CI, 0.1 to 1.0 g; P = 0.011). Mean trans plus saturated fat content decreased by 1.9 g overall (CI, -2.5 to -1.2 g; P < 0.001). Mean trans fat per 1000 kcal decreased by 2.7 g per 1000 kcal (CI, -3.1 to -2.3 g per 1000 kcal; P < 0.001). Purchases with zero grams of trans fat increased from 32% to 59%. 61

Competition, innovation and trade

Effect on competition in the domestic market

No information found.

Changes in trade of affected goods

No information found.

Effect on innovation among suppliers (i.e. reformulation and/or changes in production processes)

No information found.

Administrative burdens

Number of businesses required to provide information

No information found.

Evidence of economic burden associated with compliance for FBOs

(obtain cost data if possible)

See section above on costs of processes

Evidence of authorities' effort to enforce/monitor measure

(obtain cost data if possible)

From the FDA final decision for the trans fat ban: “Although we are mindful of the need to focus our enforcement efforts, those needs do not change the underlying law or FDA's legal authority. Food that is adulterated may be subject to seizure and distributors, manufacturers, and other parties responsible for such food may be subject to injunction. We recognize that manufacturers who have previously addedpartly hydrogenated oil to food, rather than other parties such as distributors who merely receive and sell finished foods, are the members of the food industry who will be most directly affected by this order, and we intend to focus our outreach and enforcement resources accordingly.” 62

Environmental impacts

Evidence of any environmental costs or benefits

From the Final Determination regardingpartly hydrogenated oils: “We have carefully considered the potential environmental effects of this action. We have determined, under 21 CFR 25.32(m), that this action “is of a type that does not individually or cumulatively have a significant effect on the human environment” such that neither an environmental assessment nor an environmental impact statement is required.” 63  

Evidence of increase in demand for palm oil / other ingredients

No information found.

Effects on deforestation resulting from variation in demand of ingredients

(e.g. palm oil, soy)

No information found.

Additional references

https://ec.europa.eu/jrc/en/publication/eur-scientific-and-technical-research-reports/trans-fatty-acids-europe-where-do-we-stand

Otite FO, Jacobson MF, Dahmubed A, Mozaffarian D. Trends in trans fatty acids reformulations of US supermarket and brand-name foods from 2007 through 2011. Prev Chronic Dis 2013;10:E85.

Costs and benefits of menu labelling and vending machine rules (in millions)

Rate

Potential benefits

Estimated costs

Net benefits

Total for Labelling (menu and vending rules) over 20 years*

3

$9,221.3

$1,697.9

$7,523.4

7

6,752.8

1,333.9

5,418.9

Annualized for Labelling (menu and vending rules) over 20 years*

3

601.9

110.8

491.1

7

595.5

117.6

477.9

Total for Menu Labelling over 20 years

3

9,221.3

1,166.8

8,054.5

7

6,752.8

932.8

5,820.0

Annualized for Menu Labelling over 20 years

3

601.9

76.9

525.01

7

595.5

84.5

510.99

* Benefits for the vending machine labelling rule are not quantified and are not counted in these values.

Source: https://www.federalregister.gov/documents/2014/12/01/2014-27833/food-labeling-nutrition-labeling-of-standard-menu-items-in-restaurants-and-similar-retail-food

Costs and benefits ofpartly hydrogenated oil Removal, USD Billions

20-Year net present value of

Low Estimate

Mean

High Estimate

Costs *

$2.8

$6.2

$11

Benefits

11

140

440

Net Benefits *

5

130

430

* This does not include some unquantified costs, see the economic estimate memo (Ref. 17) for discussion.

Source: https://www.federalregister.gov/documents/2015/06/17/2015-14883/final-determination-regarding-partially-hydrogenated-oils

Amount of trans fats found in products with the highest trans fat content (2005-2010)

Data are calculations from the U.S. Department of Agriculture Economic Research Service, which are based on data from the Mintel Global New Products Database.

Source: http://www.nejm.org/doi/full/10.1056/NEJMp1314072#t=article

Contribution of Various Foods to Trans Fat Intake in the American Diet (Mean Intake = 5.84 g) (data collected 1994-1996)



(1)     https://www.federalregister.gov/documents/2015/06/17/2015-14883/final-determination-regarding-partially-hydrogenated-oils  
(2)

      https://ec.europa.eu/jrc/en/publication/eur-scientific-and-technical-research-reports/trans-fatty-acids-europe-where-do-we-stand

(3)     https://www.federalregister.gov/documents/2014/12/01/2014-27833/food-labeling-nutrition-labeling-of-standard-menu-items-in-restaurants-and-similar-retail-food  
(4)   https://www.fda.gov/Food/GuidanceRegulation/GuidanceDocumentsRegulatoryInformation/LabelingNutrition/ucm385663.htm
(5) Public Health Law Center (2008) Trans fat bans: Policy options for eliminating the use of artificial trans fats in restaurants. Available online at:     http://www.publichealthlawcenter.org/sites/default/files/resources/phlc-policy-trans-fat.pdf  
(6) Public Health Law Center (2008) Trans fat bans: Policy options for eliminating the use of artificial trans fats in restaurants. Available online at:     http://www.publichealthlawcenter.org/sites/default/files/resources/phlc-policy-trans-fat.pdf  
(7) Public Health Law Center (2008) Trans fat bans: Policy options for eliminating the use of artificial trans fats in restaurants. Available online at:     http://www.publichealthlawcenter.org/sites/default/files/resources/phlc-policy-trans-fat.pdf  
(8)       https://www.fda.gov/Food/GuidanceRegulation/GuidanceDocumentsRegulatoryInformation/Labeling Nutrition/ucm385663.htm
(9) Public Health Law Center (2008) Trans fat bans: Policy options for eliminating the use of artificial trans fats in restaurants. Available online at:     http://www.publichealthlawcenter.org/sites/default/files/resources/phlc-policy-trans-fat.pdf  
(10)   https://www.fda.gov/Food/GuidanceRegulation/GuidanceDocumentsRegulatoryInformation/LabelingNutrition/ucm385663.htm
(11)

    https://ec.europa.eu/jrc/en/publication/eur-scientific-and-technical-research-reports/trans-fatty-acids-europe-where-do-we-stand

(12)   https://www.fda.gov/Food/GuidanceRegulation/GuidanceDocumentsRegulatoryInformation/LabelingNutrition/ucm053857.htm  
(13)     https://www.federalregister.gov/documents/2015/06/17/2015-14883/final-determination-regarding-partially-hydrogenated-oils  
(14) https://cspinet.org/sites/default/files/attachment/gma_trans_fat_fap_executive_summary_8-5-15.pdf
(15)  
(16)   https://www.fda.gov/food/ingredientspackaginglabeling/foodadditivesingredients/ucm449162.htm  
(17)       https://www.fda.gov/Food/GuidanceRegulation/GuidanceDocumentsRegulatoryInformation/Labeling Nutrition/ucm385663.htm  
(18)   https://www.fda.gov/Food/GuidanceRegulation/GuidanceDocumentsRegulatoryInformation/Labeling Nutrition/ucm515020.htm
(19) Public Health Law Center (2008) Trans fat bans: Policy options for eliminating the use of artificial trans fats in restaurants. Available online at:     http://www.publichealthlawcenter.org/sites/default/files/resources/phlc-policy-trans-fat.pdf  
(20) Public Health Law Center (2008) Trans fat bans: Policy options for eliminating the use of artificial trans fats in restaurants. Available online at:     http://www.publichealthlawcenter.org/sites/default/files/resources/phlc-policy-trans-fat.pdf  
(21) Public Health Law Center (2008) Trans fat bans: Policy options for eliminating the use of artificial trans fats in restaurants. Available online at:     http://www.publichealthlawcenter.org/sites/default/files/resources/phlc-policy-trans-fat.pdf  
(22) Public Health Law Center (2008) Trans fat bans: Policy options for eliminating the use of artificial trans fats in restaurants. Available online at:     http://www.publichealthlawcenter.org/sites/default/files/resources/phlc-policy-trans-fat.pdf  
(23) Public Health Law Center (2008) Trans fat bans: Policy options for eliminating the use of artificial trans fats in restaurants. Available online at:     http://www.publichealthlawcenter.org/sites/default/files/resources/phlc-policy-trans-fat.pdf  
(24)   file:///C:/Users/32040/Downloads/2231.full.pdf  
(25)   https://health.gov/dietaryguidelines/dga2005/document/pdf/dga2005.pdf  
(26)   https://www.ers.usda.gov/webdocs/publications/44672/18236_eib95.pdf?v=41192  
(27)   https://www.ers.usda.gov/webdocs/publications/44672/18236_eib95.pdf?v=41192  
(28) D. Doell, D. Folmer, H. Lee, M. Honigfort & S. Carberry. Updated estimate of trans fat intake by the US. Food Additives & Contaminants. 2012. Available online at: http://www.tandfonline.com/doi/abs/10.1080/19440049.2012.664570  
(29)  Arcand, J., Scourboutakos, M. J., Au, J. T., & L'abbe, M. R. (2014). trans Fatty acids in the Canadian food supply: an updated analysis. The American journal of clinical nutrition, ajcn-088732.
(30)   http://www.nejm.org/doi/full/10.1056/NEJMc1001841#t=article  
(31)   https://www.ncbi.nlm.nih.gov/pubmed/22314147  
(32)   https://www.ers.usda.gov/webdocs/publications/44672/18236_eib95.pdf?v=41192  
(33)     https://www.federalregister.gov/documents/2013/11/08/2013-26854/tentative-determination-regarding-partially-hydrogenated-oils-request-for-comments-and-for  
(34) Angell SY, Cobb LK, Curtis CJ, Konty KJ, Silver LD. Change in trans fatty acid content of fast-food purchases associated with New York City’s restaurant regulation: a pre-post study. Ann Intern Med 2012; 157: 81-6 pmid: 22801670.
(35) Angell SY, Silver LD, Goldstein GP, Johnson CM, Deitcher DR, Frieden TR, et al., et al. Cholesterol control beyond the clinic: New York City’s trans fat restriction. Ann Intern Med 2009; 151: 129-34 pmid: 19620165.
(36)       https://cspinet.org/sites/default/files/attachment/gma_trans_fat_fap_executive_summary_8-5-15.pdf  
(37)      Department of Health and Human Services. Tentative determination regarding partially hydrogenated oils; request for comments and for scientific data and information.
(38)     https://www.federalregister.gov/documents/2013/11/08/2013-26854/tentative-determination-regarding-partially-hydrogenated-oils-request-for-comments-and-for  
(39)   https://www.ncbi.nlm.nih.gov/pubmed/19167956  
(40)     https://www.federalregister.gov/documents/2013/11/08/2013-26854/tentative-determination-regarding-partially-hydrogenated-oils-request-for-comments-and-for  
(41)   https://www.ncbi.nlm.nih.gov/pubmed/19167956  
(42) file:///C:/Users/32040/Downloads/2231.full.pdf
(43) Public Health Law Center (2008) Trans fat bans: Policy options for eliminating the use of artificial trans fats in restaurants. Available online at: http://www.publichealthlawcenter.org/sites/default/files/resources/phlc-policy-trans-fat.pdf
(44)    https://www.federalregister.gov/documents/2015/06/17/2015-14883/final-determination-regarding-partially-hydrogenated-oils
(45) Public Health Law Center (2008) Trans fat bans: Policy options for eliminating the use of artificial trans fats in restaurants. Available online at: http://www.publichealthlawcenter.org/sites/default/files/resources/phlc-policy-trans-fat.pdf
(46) https://www.ifama.org/resources/Documents/v17ia/Hooker-Downs.pdf
(47) https://www.ifama.org/resources/Documents/v17ia/Hooker-Downs.pdf
(48)     https://www.federalregister.gov/documents/2015/06/17/2015-14883/final-determination-regarding-partially-hydrogenated-oils  
(49)   http://www.hpm.com/pdf/blog/Reference_46_Estimate_of_Cost_and_Benefits_PHOs.pdf  
(50) Cohen, J. (2014) Commentary: FDA’s proposed ban on Trans Fats: How do the costs and benefits stack up? Clinical Therapeutics; volume 36, No.3. Available at: http://www.clinicaltherapeutics.com/article/S0149-2918(14)00016-2/pdf  
(51) https://www.ifama.org/resources/Documents/v17ia/Hooker-Downs.pdf
(52) https://www.ers.usda.gov/webdocs/publications/44672/18236_eib95.pdf?v=41192
(53)   http://www.hpm.com/pdf/blog/Reference_46_Estimate_of_Cost_and_Benefits_PHOs.pdf  
(54)   http://www.hpm.com/pdf/blog/Reference_46_Estimate_of_Cost_and_Benefits_PHOs.pdf  
(55)    Brandt EJ, Myerson R, Perraillon MC, Polonsky TS. Hospital Admissions for Myocardial Infarction and Stroke Before and After the Trans-Fatty Acid Restrictions in New York. JAMA Cardiol. 2017; 2(6): 627-634.
(56)   http://www.nejm.org/doi/full/10.1056/NEJMc1001841#t=article  
(57)   https://www.ers.usda.gov/webdocs/publications/44672/18236_eib95.pdf?v=41192  
(58)   https://www.ncbi.nlm.nih.gov/pubmed/22314147  
(59)   https://www.ncbi.nlm.nih.gov/pubmed/22314147  
(60) Angell, S. Y., Silver, L. D., Goldstein, G. P., Johnson, C. M., Deitcher, D. R., Frieden, T. R., & Bassett, M. T. (2009). Cholesterol control beyond the clinic: New York City's trans fat restriction. Annals of Internal Medicine, 151(2), 129-134.
(61) Angell, S. Y., Cobb, L. K., Curtis, C. J., Konty, K. J., & Silver, L. D. (2012). Change in Trans Fatty Acid Content of Fast-Food Purchases Associated With New York City's Restaurant RegulationA Pre–Post Study. Annals of Internal Medicine, 157(2), 81-86.
(62)     https://www.federalregister.gov/documents/2015/06/17/2015-14883/final-determination-regarding-partially-hydrogenated-oils  
(63)     https://www.federalregister.gov/documents/2015/06/17/2015-14883/final-determination-regarding-partially-hydrogenated-oils  
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ANNEX 33: Questionnaire for the Open Public Consultation

















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