Thermodynamic and economic analysis, optimization of SOFC/GT/SCO2/ORC hybrid power systems for methanol reforming-powered ships with carbon capture

To realize the efficient use of energy and reduction of emissions of the power system of ocean-going vessels, a 25,000-ton chemical ship is used as the subject of this study. A hybrid power system containing carbon capture based on methanol external reforming of solid oxide fuel cell coupled with ga...

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Main Authors: Shouguang Yao, Xuan Yan, Minjie Xia, Chuang Wang, Shaofan Wang
Format: Article
Language:English
Published: Elsevier 2025-03-01
Series:Case Studies in Thermal Engineering
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Online Access:http://www.sciencedirect.com/science/article/pii/S2214157X25001005
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author Shouguang Yao
Xuan Yan
Minjie Xia
Chuang Wang
Shaofan Wang
author_facet Shouguang Yao
Xuan Yan
Minjie Xia
Chuang Wang
Shaofan Wang
author_sort Shouguang Yao
collection DOAJ
description To realize the efficient use of energy and reduction of emissions of the power system of ocean-going vessels, a 25,000-ton chemical ship is used as the subject of this study. A hybrid power system containing carbon capture based on methanol external reforming of solid oxide fuel cell coupled with gas turbine is proposed, further to achieve efficient energy use and reduce carbon emissions, the power system combines a supercritical CO2 cycle with an organic Rankine cycle in order to optimize the utilization of waste heat, and chemical absorption method for carbon capture. The proposed novel power system is analyzed for the impact of important factors of each system on performance of the system, and thermodynamic and economic analyses and evaluations are carried out. Ultimately, a genetic algorithm-based approach was employed to optimize the system's performance through multi-objective optimization, aiming for the best possible outcome. The optimized outcome shows that the system's net output power has reached 4743.81 kW, which fully satisfies the power requirements of the target vessel. Additionally, it achieves a carbon capture rate of 81.52 %, an energy efficiency of 60.56 %, and the cost of electricity production is 0.08727 $/kWh. The system realizes excellent thermodynamic performance and economy.
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institution Kabale University
issn 2214-157X
language English
publishDate 2025-03-01
publisher Elsevier
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series Case Studies in Thermal Engineering
spelling doaj-art-1b496e9ab2fd4ab2b2a944ad238dec7c2025-02-08T05:00:28ZengElsevierCase Studies in Thermal Engineering2214-157X2025-03-0167105840Thermodynamic and economic analysis, optimization of SOFC/GT/SCO2/ORC hybrid power systems for methanol reforming-powered ships with carbon captureShouguang Yao0Xuan Yan1Minjie Xia2Chuang Wang3Shaofan Wang4School of Energy and Power, Jiangsu University of Science and Technology, Zhenjiang, 212000, China; Corresponding author.School of Energy and Power, Jiangsu University of Science and Technology, Zhenjiang, 212000, ChinaSchool of Energy and Power, Jiangsu University of Science and Technology, Zhenjiang, 212000, China; School of Transportation and Logistics Engineering, Wuhan University of Technology, Wuhan, 430000, ChinaSchool of Energy and Power, Jiangsu University of Science and Technology, Zhenjiang, 212000, ChinaSchool of Energy and Power, Jiangsu University of Science and Technology, Zhenjiang, 212000, ChinaTo realize the efficient use of energy and reduction of emissions of the power system of ocean-going vessels, a 25,000-ton chemical ship is used as the subject of this study. A hybrid power system containing carbon capture based on methanol external reforming of solid oxide fuel cell coupled with gas turbine is proposed, further to achieve efficient energy use and reduce carbon emissions, the power system combines a supercritical CO2 cycle with an organic Rankine cycle in order to optimize the utilization of waste heat, and chemical absorption method for carbon capture. The proposed novel power system is analyzed for the impact of important factors of each system on performance of the system, and thermodynamic and economic analyses and evaluations are carried out. Ultimately, a genetic algorithm-based approach was employed to optimize the system's performance through multi-objective optimization, aiming for the best possible outcome. The optimized outcome shows that the system's net output power has reached 4743.81 kW, which fully satisfies the power requirements of the target vessel. Additionally, it achieves a carbon capture rate of 81.52 %, an energy efficiency of 60.56 %, and the cost of electricity production is 0.08727 $/kWh. The system realizes excellent thermodynamic performance and economy.http://www.sciencedirect.com/science/article/pii/S2214157X25001005Methanol-powered shipsSOFC/GTThermodynamic analysisMulti-objective optimizationCarbon capture
spellingShingle Shouguang Yao
Xuan Yan
Minjie Xia
Chuang Wang
Shaofan Wang
Thermodynamic and economic analysis, optimization of SOFC/GT/SCO2/ORC hybrid power systems for methanol reforming-powered ships with carbon capture
Case Studies in Thermal Engineering
Methanol-powered ships
SOFC/GT
Thermodynamic analysis
Multi-objective optimization
Carbon capture
title Thermodynamic and economic analysis, optimization of SOFC/GT/SCO2/ORC hybrid power systems for methanol reforming-powered ships with carbon capture
title_full Thermodynamic and economic analysis, optimization of SOFC/GT/SCO2/ORC hybrid power systems for methanol reforming-powered ships with carbon capture
title_fullStr Thermodynamic and economic analysis, optimization of SOFC/GT/SCO2/ORC hybrid power systems for methanol reforming-powered ships with carbon capture
title_full_unstemmed Thermodynamic and economic analysis, optimization of SOFC/GT/SCO2/ORC hybrid power systems for methanol reforming-powered ships with carbon capture
title_short Thermodynamic and economic analysis, optimization of SOFC/GT/SCO2/ORC hybrid power systems for methanol reforming-powered ships with carbon capture
title_sort thermodynamic and economic analysis optimization of sofc gt sco2 orc hybrid power systems for methanol reforming powered ships with carbon capture
topic Methanol-powered ships
SOFC/GT
Thermodynamic analysis
Multi-objective optimization
Carbon capture
url http://www.sciencedirect.com/science/article/pii/S2214157X25001005
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AT minjiexia thermodynamicandeconomicanalysisoptimizationofsofcgtsco2orchybridpowersystemsformethanolreformingpoweredshipswithcarboncapture
AT chuangwang thermodynamicandeconomicanalysisoptimizationofsofcgtsco2orchybridpowersystemsformethanolreformingpoweredshipswithcarboncapture
AT shaofanwang thermodynamicandeconomicanalysisoptimizationofsofcgtsco2orchybridpowersystemsformethanolreformingpoweredshipswithcarboncapture