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ORACLE: Odorant RemovAl by Chemical Looping dEsulphurisation

Reference Number
InnUK/132144/01
Title
ORACLE: Odorant RemovAl by Chemical Looping dEsulphurisation
Status
Completed
Energy Categories
Fossil Fuels: Oil Gas and Coal(Oil and Gas, Refining, transport and storage of oil and gas)
Hydrogen and Fuel Cells(Fuel Cells, Stationary applications)
Research Types
Basic and strategic applied research
Applied Research and Development
Science and Technology Fields
PHYSICAL SCIENCES AND MATHEMATICS (Chemistry)
UKERC Cross Cutting Characterisation
Not Cross-cutting
Principal Investigator
Project Contact
Gas Recovery & Recycle Limited
Award Type
Feasibility Study
Funding Source
Innovate UK
Start Date
01 November 2015
End Date
31 October 2016
Duration
12 months
Total Grant Value
£23,756
Industrial Sectors
Region
South East
Programme
Competition Call: 1411_FS_ENE_GEN_ENCATES2 - Energy Catalyst Rnd 2 - (FS). Activity Energy Catalyst Rnd 2 - (FS)
Investigators
Principal Investigator
Project Contact, Gas Recovery & Recycle Limited
Industrial Collaborator
Project Contact, University of Cambridge
Web Site
Objectives
Abstract
Efficient distributed electricity generation using stationary fuel cells is recognised one option to address the energy trilemma, by improving the security of supply and reducing both CO2 and local emissions in a cost effective way. The ORACLE project aims to establish the technical and commercial feasibilty of novel concept to remove the sulphur containing odorants added to the natural gas supply that would otherwise poison these fuel cells. In doing so it addresses a known technology gap in the fuel cell industry. Success would quickly generate a significant new market opportunity for GR2L and Johnson Matthey, and establish Cambridge University at the forefront of a new research area. The partners will establish whether a technology called Chemical Looping Combustion, curently used to purify argon gas, can be redesigned to selectively destroy the contaminants in natural gas, enabling them to be trapped on a safe, high capacity absorbent. The idea builds on 2 patent filings and offers the potential for a unique fuel flexible, compact purification module for fuel cell developers, with excellent performance and cost characteristics.Efficient distributed electricity generation using stationary fuel cells is recognised one option to address the energy trilemma, by improving the security of supply and reducing both CO2 and local emissions in a cost effective way. The ORACLE project aims to establish the technical and commercial feasibilty of novel concept to remove the sulphur containing odorants added to the natural gas supply that would otherwise poison these fuel cells. In doing so it addresses a known technology gap in the fuel cell industry. Success would quickly generate a significant new market opportunity for GR2L and Johnson Matthey, and establish Cambridge University at the forefront of a new research area. The partners will establish whether a technology called Chemical Looping Combustion, curently used to purify argon gas, can be redesigned to selectively destroy the contaminants in natural gas, enabling them to be trapped on a safe, high capacity absorbent. The idea builds on 2 patent filings and offers the potential for a unique fuel flexible, compact purification module for fuel cell developers, with excellent performance and cost characteristics.
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Added to Database
03/01/18