Gas turbine advanced power systems to improve solid oxide fuel cell economic viability
Coupling a solid oxide fuel cell (SOFC) with a gas turbine provides a substantial increment in system efficiency compared to the separate technologies, which can potentially introduce economic benefits and favor an early market penetration of fuel cells. Currently, the economic viability of such sys...
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Global Power and Propulsion Society
2017-06-01
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doaj-e0dc32d4f79d424aa9fe0841d508c3ca2020-11-24T21:21:03ZengGlobal Power and Propulsion SocietyJournal of the Global Power and Propulsion Society2515-30802515-30802017-06-011110.22261/U96IEDGas turbine advanced power systems to improve solid oxide fuel cell economic viabilityValentina Zaccaria0David Tucker1Alberto Traverso2University of Genova, via Montallegro 1, Genova, 16145, ItalyU.S. Department of Energy, National Energy Technology Laboratory, 3610 Collins Ferry Rd., Morgantown, WV, 26507, United StatesUniversity of Genova, via Montallegro 1, Genova, 16145, ItalyCoupling a solid oxide fuel cell (SOFC) with a gas turbine provides a substantial increment in system efficiency compared to the separate technologies, which can potentially introduce economic benefits and favor an early market penetration of fuel cells. Currently, the economic viability of such systems is limited by fuel cell short lifetime due to a progressive performance degradation that leads to cell failure. Mitigating these phenomena would have a significant impact on system economic feasibility. In this study, the lifetime of a standalone, atmospheric SOFC system was compared to a pressurized SOFC gas turbine hybrid and an economic analysis was performed. In both cases, the power production was required to be constant over time, with significantly different results for the two systems in terms of fuel cell operating life, system efficiency, and economic return. In the hybrid system, an extended fuel cell lifetime is achieved while maintaining high system efficiency and improving economic performance. In this work, the optimal power density was determined for the standalone fuel cell in order to have the best economic performance. Nevertheless, the hybrid system showed better economic performance, and it was less affected by the stack cost.ttps://www.gppsjournal.org/journals/journal-of-the-global-power-and-propulsion-society/gas-turbine-advanced-systems-for-sofc-economic-viability/solid oxide fuel cellhybrid systemeconomic analysisgas turbinedegradation |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Valentina Zaccaria David Tucker Alberto Traverso |
spellingShingle |
Valentina Zaccaria David Tucker Alberto Traverso Gas turbine advanced power systems to improve solid oxide fuel cell economic viability Journal of the Global Power and Propulsion Society solid oxide fuel cell hybrid system economic analysis gas turbine degradation |
author_facet |
Valentina Zaccaria David Tucker Alberto Traverso |
author_sort |
Valentina Zaccaria |
title |
Gas turbine advanced power systems to improve solid oxide fuel cell economic viability |
title_short |
Gas turbine advanced power systems to improve solid oxide fuel cell economic viability |
title_full |
Gas turbine advanced power systems to improve solid oxide fuel cell economic viability |
title_fullStr |
Gas turbine advanced power systems to improve solid oxide fuel cell economic viability |
title_full_unstemmed |
Gas turbine advanced power systems to improve solid oxide fuel cell economic viability |
title_sort |
gas turbine advanced power systems to improve solid oxide fuel cell economic viability |
publisher |
Global Power and Propulsion Society |
series |
Journal of the Global Power and Propulsion Society |
issn |
2515-3080 2515-3080 |
publishDate |
2017-06-01 |
description |
Coupling a solid oxide fuel cell (SOFC) with a gas turbine provides a substantial increment in system efficiency compared to the separate technologies, which can potentially introduce economic benefits and favor an early market penetration of fuel cells. Currently, the economic viability of such systems is limited by fuel cell short lifetime due to a progressive performance degradation that leads to cell failure. Mitigating these phenomena would have a significant impact on system economic feasibility. In this study, the lifetime of a standalone, atmospheric SOFC system was compared to a pressurized SOFC gas turbine hybrid and an economic analysis was performed. In both cases, the power production was required to be constant over time, with significantly different results for the two systems in terms of fuel cell operating life, system efficiency, and economic return. In the hybrid system, an extended fuel cell lifetime is achieved while maintaining high system efficiency and improving economic performance. In this work, the optimal power density was determined for the standalone fuel cell in order to have the best economic performance. Nevertheless, the hybrid system showed better economic performance, and it was less affected by the stack cost. |
topic |
solid oxide fuel cell hybrid system economic analysis gas turbine degradation |
url |
ttps://www.gppsjournal.org/journals/journal-of-the-global-power-and-propulsion-society/gas-turbine-advanced-systems-for-sofc-economic-viability/ |
work_keys_str_mv |
AT valentinazaccaria gasturbineadvancedpowersystemstoimprovesolidoxidefuelcelleconomicviability AT davidtucker gasturbineadvancedpowersystemstoimprovesolidoxidefuelcelleconomicviability AT albertotraverso gasturbineadvancedpowersystemstoimprovesolidoxidefuelcelleconomicviability |
_version_ |
1726001443070017536 |