Sustainable ecosystem design for electro-fuels derived from waste streams

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Title
Sustainable ecosystem design for electro-fuels derived from waste streams

CoPED ID
b75ba4c2-a173-4993-93b7-e9a17b6738c2

Status
Active

Funders

Value
No funds listed.

Start Date
Sept. 30, 2018

End Date
Feb. 10, 2023

Description

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Future transport will be powered by a mixture of on board electrical energy storage and sustainable chemical fuels. To be sustainable, the fuel must originate from a sustainable source and not emit harmful emissions during the chemical transformation process to motive power on the vehicle. A number of solutions have been proposed, including the use of hydrogen derived from the electrolysis of water, bio derived fuels and synthetic fuels (sometimes referred to electrofuels). All these options have merits and demerits and may be present in the sector side by side fulfilling different needs.

In this project, the opportunity to use the emissions from the waste industry will be investigated. Gaseous emission, mainly methane from the decomposition of various waste streams have a very high greenhouse gas signature and in contribute significantly to global warming. Conversion of these waste products to a fuel has the potential of delivering a sustainable energy source that is net carbon negative. A systems approach will be taken, investigating the total impact of the waste stream, conversion process and end use to provide a robust impact assessment of various options. Process modelling techniques will be used to investigate waste treatment options including energy, capital and operational costs. Opportunities for innovative system level solutions to enhance the process will be identified and may lead to laboratory work to further investigate potential solutions.

This project covers a broad subject and the interplay of complex system concepts. A candidate will be expected to be able to think at a systems level and be comfortable in both the simulation and laboratory environments.

University of Brighton LEAD_ORG
Ricardo UK PLC STUDENT_PP_ORG

Robert Morgan SUPER_PER
Luke Middleton STUDENT_PER

Subjects by relevance
  1. Emissions
  2. Fuels
  3. Environmental effects
  4. Wastes
  5. Greenhouse gases
  6. Decrease (active)
  7. Climate changes
  8. Waste management
  9. Methane
  10. Waste treatment
  11. Hydrogen
  12. Carbon dioxide
  13. Renewable energy sources

Extracted key phrases
  1. Sustainable chemical fuel
  2. Sustainable ecosystem design
  3. Sustainable energy source
  4. Sustainable source
  5. Waste stream
  6. Waste treatment option
  7. Synthetic fuel
  8. Innovative system level solution
  9. Waste industry
  10. Waste product
  11. Board electrical energy storage
  12. Chemical transformation process
  13. Conversion process
  14. Process modelling technique
  15. Complex system concept

Related Pages

UKRI project entry

UK Project Locations