Optimized High Temperature PEM Fuel Cell & High Pressure PEM Electrolyser for Regenerative Fuel Cell Systems in GEO Telecommunication Satellites
Next generation telecommunication satellites will demand increasingly more power. Power levels up to 50 kW are foreseen for the next decades. Battery technology that can sustain up to 50 kW for eclipse lengths of up to 72 minutes will represent a major impact on the total mass of the satellite, even...
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Online Access: | https://doi.org/10.1051/e3sconf/20171610004 |
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doaj-183512eaa8b8491083c7d5cc5e63d4002021-02-02T00:20:31ZengEDP SciencesE3S Web of Conferences2267-12422017-01-01161000410.1051/e3sconf/20171610004e3sconf_espc2017_10004Optimized High Temperature PEM Fuel Cell & High Pressure PEM Electrolyser for Regenerative Fuel Cell Systems in GEO Telecommunication SatellitesFarnes Jarle0Bokach Dmitry1ten Hoopen Sander2Skåtun Kim3Schautz Max4Geneste Xavier5Vik Arild6Researcher at CMR PrototechResearcher at CMR PrototechCEO at Ideevolutie, European Space Innovation Centre (ESIC)Project engineer at CMR PrototechEuropean Space AgencyEuropean Space AgencyTechnology Director at CMR PrototechNext generation telecommunication satellites will demand increasingly more power. Power levels up to 50 kW are foreseen for the next decades. Battery technology that can sustain up to 50 kW for eclipse lengths of up to 72 minutes will represent a major impact on the total mass of the satellite, even with new Li-ion battery technologies. Regenerative fuel cell systems (RFCS) were identified years ago as a possible alternative to rechargeable batteries. CMR Prototech has investigated this technology in a series of projects initiated by ESA focusing on both the essential fuel cell technology, demonstration of cycle performance of a RFCS, corresponding to 15 years in orbit, as well as the very important reactants storage systems. In the last two years the development has been focused towards optimising the key elements of the RFCS; the HTPEM fuel cell and the High Pressure PEM electrolyser. In these ESA activities the main target has been to optimise the design by reducing the mass and at the same time improve the performance, thus increasing the specific energy. This paper will present the latest development, including the main results, showing that significant steps have been taken to increase TRL on these key components.https://doi.org/10.1051/e3sconf/20171610004 |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Farnes Jarle Bokach Dmitry ten Hoopen Sander Skåtun Kim Schautz Max Geneste Xavier Vik Arild |
spellingShingle |
Farnes Jarle Bokach Dmitry ten Hoopen Sander Skåtun Kim Schautz Max Geneste Xavier Vik Arild Optimized High Temperature PEM Fuel Cell & High Pressure PEM Electrolyser for Regenerative Fuel Cell Systems in GEO Telecommunication Satellites E3S Web of Conferences |
author_facet |
Farnes Jarle Bokach Dmitry ten Hoopen Sander Skåtun Kim Schautz Max Geneste Xavier Vik Arild |
author_sort |
Farnes Jarle |
title |
Optimized High Temperature PEM Fuel Cell & High Pressure PEM Electrolyser for Regenerative Fuel Cell Systems in GEO Telecommunication Satellites |
title_short |
Optimized High Temperature PEM Fuel Cell & High Pressure PEM Electrolyser for Regenerative Fuel Cell Systems in GEO Telecommunication Satellites |
title_full |
Optimized High Temperature PEM Fuel Cell & High Pressure PEM Electrolyser for Regenerative Fuel Cell Systems in GEO Telecommunication Satellites |
title_fullStr |
Optimized High Temperature PEM Fuel Cell & High Pressure PEM Electrolyser for Regenerative Fuel Cell Systems in GEO Telecommunication Satellites |
title_full_unstemmed |
Optimized High Temperature PEM Fuel Cell & High Pressure PEM Electrolyser for Regenerative Fuel Cell Systems in GEO Telecommunication Satellites |
title_sort |
optimized high temperature pem fuel cell & high pressure pem electrolyser for regenerative fuel cell systems in geo telecommunication satellites |
publisher |
EDP Sciences |
series |
E3S Web of Conferences |
issn |
2267-1242 |
publishDate |
2017-01-01 |
description |
Next generation telecommunication satellites will demand increasingly more power. Power levels up to 50 kW are foreseen for the next decades. Battery technology that can sustain up to 50 kW for eclipse lengths of up to 72 minutes will represent a major impact on the total mass of the satellite, even with new Li-ion battery technologies. Regenerative fuel cell systems (RFCS) were identified years ago as a possible alternative to rechargeable batteries. CMR Prototech has investigated this technology in a series of projects initiated by ESA focusing on both the essential fuel cell technology, demonstration of cycle performance of a RFCS, corresponding to 15 years in orbit, as well as the very important reactants storage systems. In the last two years the development has been focused towards optimising the key elements of the RFCS; the HTPEM fuel cell and the High Pressure PEM electrolyser. In these ESA activities the main target has been to optimise the design by reducing the mass and at the same time improve the performance, thus increasing the specific energy. This paper will present the latest development, including the main results, showing that significant steps have been taken to increase TRL on these key components. |
url |
https://doi.org/10.1051/e3sconf/20171610004 |
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