A novel multi-generation energy harvesting system integrating photovoltaic and solid oxide fuel cell technologies
This paper designs a new multi-generation system based on solar tower power supply, integrating a solid oxide fuel cell-gas turbine system, a supercritical recompressed carbon dioxide cycle, a Rankine cycle, an organic Rankine cycle, a compressed air energy storage system and a liquefied natural gas...
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sg-ntu-dr.10356-1734692024-02-06T07:26:23Z A novel multi-generation energy harvesting system integrating photovoltaic and solid oxide fuel cell technologies Pan, Mingzhang Que, Wenshuai Li, Xiaoya Wang, Zongrun Zeng, Yue Zhou, Xiaorong School of Electrical and Electronic Engineering Engineering Solar Energy Carbon Capture This paper designs a new multi-generation system based on solar tower power supply, integrating a solid oxide fuel cell-gas turbine system, a supercritical recompressed carbon dioxide cycle, a Rankine cycle, an organic Rankine cycle, a compressed air energy storage system and a liquefied natural gas system. The aim is to overcome the intermittent and unstable nature of the solar power supply and ensure continuous power generation throughout the day, as well as improving the energy efficiency of the solar power system and minimising exhaust emissions from the integrated system. The system is modelled and evaluated in terms of energy, exergy, environment and economy. The results show the solar system energy efficiency of 10.09%, the total system energy efficiency of 19.28%, a round-trip efficiency of 58.66% and an exergetic round-trip efficiency of 52.06%, preventing the emission of 2090 tons of CO2 (a total of $50175 in environmental fines) per year. Finally, the proposed system was applied to a case study in the Xixiangtang district of Nanning, China, where the system, combined with real data, produced 24.8 MWh of electricity on the day with the highest direct of normal irradiance. In addition, the results of the economic analysis show the dynamic payback period is 6.9 years. This work was supported by National Natural Science Foundation of China, China (22172038, 52066003), and Guangxi Key Research and Development Program (AB21220059, AB22080084). 2024-02-06T05:43:49Z 2024-02-06T05:43:49Z 2023 Journal Article Pan, M., Que, W., Li, X., Wang, Z., Zeng, Y. & Zhou, X. (2023). A novel multi-generation energy harvesting system integrating photovoltaic and solid oxide fuel cell technologies. Journal of Cleaner Production, 425, 138770-. https://dx.doi.org/10.1016/j.jclepro.2023.138770 0959-6526 https://hdl.handle.net/10356/173469 10.1016/j.jclepro.2023.138770 2-s2.0-85172223799 425 138770 en Journal of Cleaner Production © 2023 Elsevier Ltd. All rights reserved. |
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Engineering Solar Energy Carbon Capture Pan, Mingzhang Que, Wenshuai Li, Xiaoya Wang, Zongrun Zeng, Yue Zhou, Xiaorong A novel multi-generation energy harvesting system integrating photovoltaic and solid oxide fuel cell technologies |
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This paper designs a new multi-generation system based on solar tower power supply, integrating a solid oxide fuel cell-gas turbine system, a supercritical recompressed carbon dioxide cycle, a Rankine cycle, an organic Rankine cycle, a compressed air energy storage system and a liquefied natural gas system. The aim is to overcome the intermittent and unstable nature of the solar power supply and ensure continuous power generation throughout the day, as well as improving the energy efficiency of the solar power system and minimising exhaust emissions from the integrated system. The system is modelled and evaluated in terms of energy, exergy, environment and economy. The results show the solar system energy efficiency of 10.09%, the total system energy efficiency of 19.28%, a round-trip efficiency of 58.66% and an exergetic round-trip efficiency of 52.06%, preventing the emission of 2090 tons of CO2 (a total of $50175 in environmental fines) per year. Finally, the proposed system was applied to a case study in the Xixiangtang district of Nanning, China, where the system, combined with real data, produced 24.8 MWh of electricity on the day with the highest direct of normal irradiance. In addition, the results of the economic analysis show the dynamic payback period is 6.9 years. |
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School of Electrical and Electronic Engineering |
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School of Electrical and Electronic Engineering Pan, Mingzhang Que, Wenshuai Li, Xiaoya Wang, Zongrun Zeng, Yue Zhou, Xiaorong |
format |
Article |
author |
Pan, Mingzhang Que, Wenshuai Li, Xiaoya Wang, Zongrun Zeng, Yue Zhou, Xiaorong |
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Pan, Mingzhang |
title |
A novel multi-generation energy harvesting system integrating photovoltaic and solid oxide fuel cell technologies |
title_short |
A novel multi-generation energy harvesting system integrating photovoltaic and solid oxide fuel cell technologies |
title_full |
A novel multi-generation energy harvesting system integrating photovoltaic and solid oxide fuel cell technologies |
title_fullStr |
A novel multi-generation energy harvesting system integrating photovoltaic and solid oxide fuel cell technologies |
title_full_unstemmed |
A novel multi-generation energy harvesting system integrating photovoltaic and solid oxide fuel cell technologies |
title_sort |
novel multi-generation energy harvesting system integrating photovoltaic and solid oxide fuel cell technologies |
publishDate |
2024 |
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https://hdl.handle.net/10356/173469 |
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1794549304681037824 |