Project Class and Type
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Definition
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Rationale
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Standards
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Specific terms
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PROJECT CLASS A: Environmentally sustainable electricity production
[Includes the exact content of current Article 1 and Appendix I, as well as electricity production from hydrogen.]
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TYPE 1: Renewable energy projects and energy efficiency in renewable energy projects
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Scope of current Article 1 and Appendix I. We do not envisage that this could be a simple copy paste of Appendix I in the “Definition” box, as the actual definition of eligible projects is contained in Article 1, but on substance, we propose to reflect here the scope of current Article 1 and Appendix I, with no change on substance (i.e. no standard, N/A) and the necessary text adjustments of formal nature.
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TYPE 2: Electricity production from gaseous and liquid fuels of renewable origin, including clean hydrogen
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Construction and operation of electricity generation facilities that produce electricity using gaseous and liquid fuels of renewable origin, including clean hydrogen.
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Low GHG emissions electricity production.
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Life-cycle GHG emissions from the generation of electricity are lower than 100gCO2e/kWh. Life-cycle GHG emissions should be calculated based on project-specific data, using ISO 14067:2018 or ISO 14064-1:2018, and verified by a third party.
Either at construction, measurement equipment for monitoring of physical emissions, such as methane leakage is installed or a leak detection and repair program is introduced; or at operation, physical measurement of methane emissions are reported and leak is eliminated.
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25 years. [To be discussed]
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PROJECT CLASS B: Remediation projects in fossil fuel plants, fossil fuel substitution
[Exact content of Appendix II, project class A, type 1, and project class B. We note that renumbering of project class A, type 1, should be reflected in Arrangement article 6 c).]
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Copy paste current content of Appendix II, project class A, type 1, and project class B.
Explanations: We suggest to split project class A into two, to have a clear distinction between CCUS projects as such (that can have many applications, not only in the energy sector, but also in manufacturing, and which we moved to the new project class D) and projects focused on electricity generation from fossil fuels (which we suggest to all put together into this new project class B). The EU flagged previously a need to update current standards in this section, but we can agree for the time being to address this at a later stage of the discussions.
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PROJECT CLASS C: Energy efficiency
[Exact content of Appendix II, project class C.]
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Copy paste current content of Appendix II, project class C.
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PROJECT CLASS D: CO2 capture, utilization and storage
[Scope of current Appendix II, project class A, type 2. Here we propose updated standards, to reflect the fact that CCUS is a key technology to reduce GHG emissions in many industrials applications and the standards should not be focused on capture rate but on the effectiveness of the capture, meaning that CCUS projects should be eligible for incentives even if the capture rate is low. The rationale for the new standards proposed is that CO2 leakage can undermine the value of CCUS as a mitigation option. Therefore monitoring should be encouraged through policy provisions.]
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TYPE 1: CCUS (Carbon Capture Utilization and Storage) projects as such
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Construction and operation of facilities that provide Carbon Capture Utilization and/or Storage, including activities directly related to transportation and infrastructure essential to the operation, such as vehicles and ships.
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Copy paste current content in Appendix II, project class A, type 2.
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CO2 transported from the installation where it is captured to the injection point does not lead to CO2 leakages above 0.5 % of the mass of CO2 transported.
Where transport and/or storage of CO2 is involved, appropriate leak detection systems and a monitoring plan are in place, with regular reports verified by the national authorities or an independent third party.
Geological storage of CO2 complies with ISO 27914:2017.
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Copy paste current content in Appendix II, project class A, type 2.
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PROJECT CLASS E: Electricity storage
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TYPE 1: Electricity storage facilities
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Construction and operation of facilities that store electricity and return it in the form of electricity. This includes pumped hydropower storage.
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Storage of electricity allows a higher penetration of renewables and a better management of the demand on the grid.
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If the activity includes chemical energy storage, the medium of storage (hydrogen or ammonia) complies with CCSU standards for clean manufacturing of the corresponding product.
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25years. [To be discussed]
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TYPE 2: Production and recycling of batteries
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Manufacturing of rechargeable batteries, as well as battery packs and accumulators for transport, stationary and off-grid energy storage and other industrial applications. This includes the manufacture of respective components (battery active materials, battery cells, casings and electronic components). Recycling of end-of-life batteries.
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Batteries are an important enabler for electricity storage, as well as low carbon transport.
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No standard. N/A.
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25 years. [To be discussed]
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PROJECT CLASS F: Transmission and distribution of low carbon electricity
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TYPE 1:
Transmission and distribution of low carbon electricity
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Construction, expansion and operation of facilities that transport low carbon electricity. This includes direct connections to low carbon sources and whole networks where the average system grid factor meets the standards over a 5-years rolling period.
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This supports of a higher penetration of low carbon energy sources.
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Low carbon electricity sources are defined as renewable sources or where GHG emissions from the electricity produced is below the threshold value of 100 gCO2e/kWh measured on a life cycle basis.
[As mentioned previously and in our paper for the TEP, we are open to discussing additional eligibility criteria.]
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25 years. [To be discussed]
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PROJECT CLASS G: Clean hydrogen production, hydrogen transmission and distribution and hydrogen storage
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TYPE 1:
Production of clean hydrogen
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Construction and operation of facilities that produce hydrogen in an environmentally sustainable way, and/or of equipment for the production of hydrogen.
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Sustainable production and use of hydrogen is an opportunity for GHG emissions reductions in many sectors, especially energy, manufacturing and transportation.
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Manufacture complies with life-cycle GHG emissions lower than 3 kg CO2e per kg of H2 produced.
[Standards should be reviewed regularly. This could be flagged as part of a general review clause.]
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25 years. [To be discussed]
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TYPE 2:
Hydrogen transport networks
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Construction and operation of networks dedicated to hydrogen transport or other low-carbon gasses (i.e. from a renewable source or matching the standard for production of clean hydrogen).
Repurposing of natural gas networks to 100% hydrogen and retrofitting of natural gas networks that enables the integration of hydrogen and other low-carbon gasses (meaning including that increase the blend of hydrogen and other low-carbon gasses in the system).
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Sustainable production and use of hydrogen is an opportunity for GHG emissions reductions in many sectors, especially energy, manufacturing and transportation.
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The activity includes leak detection and repair of existing gas pipelines and other network elements to reduce methane leakage.
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25 years. [To be discussed]
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TYPE 3:
Storage of hydrogen
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Construction of hydrogen storage facilities, conversion of existing underground gas storage facilities into storage facilities dedicated to hydrogen storage and operation of hydrogen storage facilities.
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Sustainable production and use of hydrogen is an opportunity for GHG emissions reductions in many sectors, especially energy, manufacturing and transportation.
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In the case of projects linked to operating the facilities, hydrogen stored in the facility should meet the standards for production of clean hydrogen from this Appendix.
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25 years. [To be discussed]
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PROJECT CLASS H: Low emissions manufacturing
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TYPE 1:
Production of clean ammonia
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Low emissions manufacture of anhydrous ammonia.
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To promote the production of clean ammonia and its usages that have the potential to reduce GHG emissions in several areas.
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Ammonia is produced from clean hydrogen produced according to the standards defined in this Appendix or is recovered from waste water.
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25 years. [To be discussed]
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TYPE 2:
Low emissions manufacturing in hard-to-abate sectors (including cement, iron and steel, aluminium)
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Low emissions manufacturing including complete manufacturing plants and part thereof, supplies of equipment and directly associated infrastructure and services.
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To incentivize manufacturers to move toward sustainable practices in hard-to-abate sectors.
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The EU proposes the following activities to be eligible based on a reference value for top tier less emitting manufacturing installations:
For cement:
a) Grey cement clinker where the specific GHG emissions are lower than 0,722 tCO2e per tonne of grey cement clinker.
b) Cement from grey clinker or alternative hydraulic binder, where the specific GHG emissions from the clinker and cement or alternative binder production are lower than 0,469 tCO2e per tonne of cement or alternative binder manufactured.
For iron and steel:
a) Iron and steel where GHG emissions, reduced by the amount of emissions assigned to the production of waste gases do not exceed the following values applied to the different manufacturing process steps:
a.hot metal = 1,331 tCO2e/t product;
b.sintered ore = 0,163 tCO2e/t product;
c.coke (excluding lignite coke) = 0,144 tCO2e/t product;
d.iron casting = 0,299 tCO2e/t product;
e.electric Arc Furnace (EAF) high alloy steel = 0,266 tCO2e/t product;
f.electric Arc Furnace (EAF) carbon steel = 0,209 tCO2e/t product.
b) Steel in electric arc furnaces (EAFs) producing EAF carbon steel or EAF high alloy steel, and where the steel scrap input relative to product output is not lower than 70 % for the production of high alloy steel and 90 % for the production of carbon steel.
For aluminium:
a) Primary aluminium where the economic activity complies with the following criteria:
a.GHG emissions do not exceed 1,484 tCO2e per ton of aluminium manufactured.
b.The average carbon intensity for the indirect GHG emissions does not exceed 100g CO2e/kWh. c. The electricity consumption for the manufacturing process does not exceed 15.5 MWh/t Al.
b) Secondary aluminium.
[Standards should be reviewed regularly. This could be flagged as part of a general review clause.]
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25 years. [To be discussed]
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PROJECT CLASS I: Zero and low emissions transport
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TYPE 1:
Zero emissions transport and enabling infrastructure
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Zero direct emissions fleets including vehicles for road, rail and water transport and associated infrastructure essential to operating such vehicles.
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The transition to zero and low direct tailpipe emissions fleets is key in achieving climate change mitigation.
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Direct tailpipe CO2 emissions of the moving assets are zero.
Only in case of freight transport, vehicles, train, wagons or vessels are not dedicated to the transport of fossil fuels and infrastructure is not dedicated to the transport or storage of fossil fuels.
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25 years. [To be discussed]
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TYPE 2:
Low emissions water transport
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Low emissions water vessels.
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The transition to zero and low direct tailpipe emissions fleets is key in achieving climate change mitigation.
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For inland passenger water transport: Hybrid and dual fuel vessels derive at least 50% of their energy from zero direct (tailpipe) CO2 emission fuels or plug-in power for their normal operation.
For inland freight transport: Vessels have direct (tailpipe) emissions of CO2 per tonne kilometre, calculated (or estimated in case of new vessels) using the Energy Efficiency Operational Indicator (EEOI) developed by the International Maritime Organisation (IMO), 50% lower than average reference value for CO2 emissions for heavy duty vehicles based on an internationally or any other recognized standard.
For sea and coastal freight and passenger water transport, as well as vessels for port operations, auxiliary activities and specialised operations: Hybrid and dual fuel vessels derive at least 25% of their energy from zero direct (tailpipe) CO2 emission fuels or plug-in power for their normal operation at sea and in ports. Alternatively, the vessels have an attained IMO Energy Efficiency Design Index (EEDI) value 10 % below the EEDI requirements applicable if the vessels are able to run on zero direct (tailpipe) CO2 emission fuels or on fuels from renewable sources.
Enabling modal shift from road to water: If vessels are used exclusively for operating coastal and short sea services designed to enable modal shift of freight currently transported by land to sea, it is sufficient that vessels have direct (tailpipe) CO2 emissions, calculated using the IMO EEDI, 50 % lower than the average reference CO2 emissions value for heavy duty vehicles based on an internationally or any other recognized standard.
[We propose to review this project type in 2025. This could be flagged as part of a general review clause.]
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25 years. [To be discussed]
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TYPE 3:
Retrofitting and upgrades for water transport
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Retrofitting and upgrades of vessels to reduce emissions.
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The transition to zero and low direct tailpipe emissions fleets is key in achieving climate change mitigation.
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Fuel consumption of the vessel is reduced by at least 10 % expressed in litre of fuel per tonne kilometre and this is clearly demonstrated by a comparative calculation. Vessels retrofitted are not dedicated to the transport of fossil fuels.
[We propose to review this project type in 2025. This could be flagged as part of a general review clause.]
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25 years. [To be discussed]
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TYPE 4:
Low carbon airport infrastructure
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Construction, modernisation, maintenance and operation of low carbon airport infrastructure, meaning dedicated to the operation of aircraft with zero tailpipe CO2 emissions, to the provision of fixed electrical ground power and preconditioned air to stationary aircrafts or to the zero direct emissions performance of the airport’s own operations.
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The transition to zero and low direct tailpipe emissions fleets is key in achieving climate change mitigation.
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No standard. N/A.
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25 years. [To be discussed]
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