Low Carbon Operation Optimization of lntegrated Energy System with Reversible Solid Oxide Cell

Currently,high proportions of renewable energy are consumed by power systems,resulting in increased carbon emissions that adversely affect the environment. To overcomes these challenges,this study proposes to apply a reversible solid oxide cell (RSOC) and a carbon capture system (CCS) to an integrat...

Full description

Saved in:
Bibliographic Details
Main Author: LI Xin, WANG Changsheng, LI Xinyu, ZHAO Weijie, LI Yang, GUO Panfeng
Format: Article
Language:zho
Published: Editorial Department of Electric Power Construction 2025-01-01
Series:Dianli jianshe
Subjects:
Online Access:https://www.cepc.com.cn/fileup/1000-7229/PDF/1735120399566-666013085.pdf
Tags: Add Tag
No Tags, Be the first to tag this record!
_version_ 1823861246311530496
author LI Xin, WANG Changsheng, LI Xinyu, ZHAO Weijie, LI Yang, GUO Panfeng
author_facet LI Xin, WANG Changsheng, LI Xinyu, ZHAO Weijie, LI Yang, GUO Panfeng
author_sort LI Xin, WANG Changsheng, LI Xinyu, ZHAO Weijie, LI Yang, GUO Panfeng
collection DOAJ
description Currently,high proportions of renewable energy are consumed by power systems,resulting in increased carbon emissions that adversely affect the environment. To overcomes these challenges,this study proposes to apply a reversible solid oxide cell (RSOC) and a carbon capture system (CCS) to an integrated energy system (IES),dominated by hybrid combined heat and power (CHP) systems,to achieve economic,low-carbon,and flexible comprehensive optimization of the IES. First,the operating mechanism and mathematical models of the RSOC and CCS are constructed. The RSOC is used to store the excess renewable energy for an indefinite period for reuse,thereby alleviating the energy consumption pressure on the CCS during low outputs of wind and solar power. Second,the IES low-carbon economic model of RSOC and CCS is constructed to improve the carbon emission reduction benefit of the model and minimize the economic operation cost. Finally,an improved IEEE-40 node power system in a city in Northwest China is used as an example and seven different configuration scenarios were analyzed. The simulation results show that the model is effective in reducing renewable energy consumption and carbon emission,and it significantly improves the economy and flexibility of IESs.
format Article
id doaj-art-3d78c64a2f9f471d83ea6ef9d0d3bc12
institution Kabale University
issn 1000-7229
language zho
publishDate 2025-01-01
publisher Editorial Department of Electric Power Construction
record_format Article
series Dianli jianshe
spelling doaj-art-3d78c64a2f9f471d83ea6ef9d0d3bc122025-02-10T02:35:53ZzhoEditorial Department of Electric Power ConstructionDianli jianshe1000-72292025-01-01461587110.12204/j.issn.1000-7229.2025.01.006Low Carbon Operation Optimization of lntegrated Energy System with Reversible Solid Oxide CellLI Xin, WANG Changsheng, LI Xinyu, ZHAO Weijie, LI Yang, GUO Panfeng01. College of Electrical Engineering and New Energy,China Three Gorges University,Yichang 443002,Hubei Province,China;2. Hubei Provincial Engineering Research Center of Intelligent Energy Technology (China Three Gorges University),Yichang 443002,Hubei Province,China;3. China Three Gorges Corporation,Yichang 430010,Hubei Province,China;4. Kunming Bureau of China Southern Power Grid EHV Transmission Company,Kunming 650000,China;5. China Three Gorges Base Development Co.,Ltd.,Yichang 443002,Hubei Province,ChinaCurrently,high proportions of renewable energy are consumed by power systems,resulting in increased carbon emissions that adversely affect the environment. To overcomes these challenges,this study proposes to apply a reversible solid oxide cell (RSOC) and a carbon capture system (CCS) to an integrated energy system (IES),dominated by hybrid combined heat and power (CHP) systems,to achieve economic,low-carbon,and flexible comprehensive optimization of the IES. First,the operating mechanism and mathematical models of the RSOC and CCS are constructed. The RSOC is used to store the excess renewable energy for an indefinite period for reuse,thereby alleviating the energy consumption pressure on the CCS during low outputs of wind and solar power. Second,the IES low-carbon economic model of RSOC and CCS is constructed to improve the carbon emission reduction benefit of the model and minimize the economic operation cost. Finally,an improved IEEE-40 node power system in a city in Northwest China is used as an example and seven different configuration scenarios were analyzed. The simulation results show that the model is effective in reducing renewable energy consumption and carbon emission,and it significantly improves the economy and flexibility of IESs.https://www.cepc.com.cn/fileup/1000-7229/PDF/1735120399566-666013085.pdfintegrated energy system (ies)|reversible solid oxide cell (rsoc)|carbon capture|combined heat and power (chp)|low carbon economy
spellingShingle LI Xin, WANG Changsheng, LI Xinyu, ZHAO Weijie, LI Yang, GUO Panfeng
Low Carbon Operation Optimization of lntegrated Energy System with Reversible Solid Oxide Cell
Dianli jianshe
integrated energy system (ies)|reversible solid oxide cell (rsoc)|carbon capture|combined heat and power (chp)|low carbon economy
title Low Carbon Operation Optimization of lntegrated Energy System with Reversible Solid Oxide Cell
title_full Low Carbon Operation Optimization of lntegrated Energy System with Reversible Solid Oxide Cell
title_fullStr Low Carbon Operation Optimization of lntegrated Energy System with Reversible Solid Oxide Cell
title_full_unstemmed Low Carbon Operation Optimization of lntegrated Energy System with Reversible Solid Oxide Cell
title_short Low Carbon Operation Optimization of lntegrated Energy System with Reversible Solid Oxide Cell
title_sort low carbon operation optimization of lntegrated energy system with reversible solid oxide cell
topic integrated energy system (ies)|reversible solid oxide cell (rsoc)|carbon capture|combined heat and power (chp)|low carbon economy
url https://www.cepc.com.cn/fileup/1000-7229/PDF/1735120399566-666013085.pdf
work_keys_str_mv AT lixinwangchangshenglixinyuzhaoweijieliyangguopanfeng lowcarbonoperationoptimizationoflntegratedenergysystemwithreversiblesolidoxidecell