Synthetic Diesel Production – A Sector Coupling Approach for Decarbonizing Future Mobility - Synthetic Diesel Production – A Sector Coupling Approach for Decarbonizing Future Mobility - Content
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Synthetic Diesel Production – A Sector Coupling Approach for Decarbonizing Future Mobility
Presenter: Dirk Becker - Head of Design & Fuel Cell, AVL List GmbH
Language: English
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May 25, 2020
10:00 AM CEST
60 mins
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To reach the challenging CO2 targets of a maximum global temperature increases of two degrees (Paris COP21, 2015), a holistic approach is required.
In the future, battery electric and hydrogen electric vehicle propulsion systems will become the key technologies alongside continuously optimized internal combustion engines with max. efficiency and zero-impact emissions. All three technologies will be used in parallel for the next decades.
For a maximum contribution to the Paris two-degree target, the usage of synthetic fuels, based on renewable electric energy is essential.
With the combination of a solid oxide electrolyzer cell (SOEC) and a Fischer-Tropsch (FT) synthesis, a highly efficient process is possible.
By using the Power-to-Liquid process (PtL), sustainable diesel can be produced, and it can immediately be used on large scale in existing fleets with the biggest lever arm on CO2 emissions.
To achieve a maximum CO2 reduction, a holistic approach over all sectors is required. In this context, sector integration is one step towards a closed-loop economy by coupling power generation, industry and other sectors such as mobility. CO2 can be partly captured and recycled.
Sector integration is a sustainable way to store large amounts of fluctuating renewable electricity into energy carriers such as synthetic fuels.
In this lecture, PtL based on a combination of SOEC and FT is discussed.
The SOEC’s key performance indicators and its total costs of ownership, based on today’s AVL technology know-how, are presented.
The environmental and economic potential of this approach is shown, based on a highly modular and decentralized plant concept.
In the future, battery electric and hydrogen electric vehicle propulsion systems will become the key technologies alongside continuously optimized internal combustion engines with max. efficiency and zero-impact emissions. All three technologies will be used in parallel for the next decades.
For a maximum contribution to the Paris two-degree target, the usage of synthetic fuels, based on renewable electric energy is essential.
With the combination of a solid oxide electrolyzer cell (SOEC) and a Fischer-Tropsch (FT) synthesis, a highly efficient process is possible.
By using the Power-to-Liquid process (PtL), sustainable diesel can be produced, and it can immediately be used on large scale in existing fleets with the biggest lever arm on CO2 emissions.
To achieve a maximum CO2 reduction, a holistic approach over all sectors is required. In this context, sector integration is one step towards a closed-loop economy by coupling power generation, industry and other sectors such as mobility. CO2 can be partly captured and recycled.
Sector integration is a sustainable way to store large amounts of fluctuating renewable electricity into energy carriers such as synthetic fuels.
In this lecture, PtL based on a combination of SOEC and FT is discussed.
The SOEC’s key performance indicators and its total costs of ownership, based on today’s AVL technology know-how, are presented.
The environmental and economic potential of this approach is shown, based on a highly modular and decentralized plant concept.
date and duration
May 25, 2020 10:00 AM CEST
60 mins