Source-load coordinated optimal scheduling strategy considering solar thermal biomass utilization under integrated demand response incentives

To further improve the efficiency of biomass energy utilization, a source-load coordinated optimization scheduling strategy considering solar thermal biomass utilization (STBU) under comprehensive demand response incentives is proposed. Firstly, on the source side, an integrated energy system (IES)...

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Main Authors: ZHANG Yewei, WEN Zhong, WANG Can, NI Zhi, YAN Wenwen, HU Chuanbao
Format: Article
Language:zho
Published: Editorial Department of Electric Power Engineering Technology 2024-11-01
Series:电力工程技术
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Online Access:https://www.epet-info.com/dlgcjsen/article/abstract/240321266
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author ZHANG Yewei
WEN Zhong
WANG Can
NI Zhi
YAN Wenwen
HU Chuanbao
author_facet ZHANG Yewei
WEN Zhong
WANG Can
NI Zhi
YAN Wenwen
HU Chuanbao
author_sort ZHANG Yewei
collection DOAJ
description To further improve the efficiency of biomass energy utilization, a source-load coordinated optimization scheduling strategy considering solar thermal biomass utilization (STBU) under comprehensive demand response incentives is proposed. Firstly, on the source side, an integrated energy system (IES) coupling energy supply model with STBU is constructed, and the STBU is coupled with a power-to-gas system to achieve efficient hydrogen-blended combustion utilization of the STBU device. Secondly, on the load side, both price-based and substitution-based demand responses are introduced to improve the low-carbon performance of the IES through source-load coordinated optimization. Then, a liquid storage carbon capture system and a tiered carbon tax mechanism are introduced in the IES to enhance the system's low-carbon economic benefits, establishing an objective function to maximize the system's total revenue. On this basis, a fuzzy chance-constrained programming model considering multiple uncertainties of the IES is established. Finally, actual data from a northern region is selected to verify the feasibility and effectiveness of the model, and the impact of multiple uncertainties on the operating costs of the IES is analyzed. The results show that the model has good economic and low-carbon performance. An increase in uncertainty raises the interaction costs between the system and the external power grid.
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institution OA Journals
issn 2096-3203
language zho
publishDate 2024-11-01
publisher Editorial Department of Electric Power Engineering Technology
record_format Article
series 电力工程技术
spelling doaj-art-bf6debb0a8bc4d1e97f8d3902b23bbd92025-08-20T02:36:03ZzhoEditorial Department of Electric Power Engineering Technology电力工程技术2096-32032024-11-0143611112210.12158/j.2096-3203.2024.06.011240321266Source-load coordinated optimal scheduling strategy considering solar thermal biomass utilization under integrated demand response incentivesZHANG Yewei0WEN Zhong1WANG Can2NI Zhi3YAN Wenwen4HU Chuanbao5College of Electrical and New Energy, China Three Gorges University, Yichang 443002, ChinaCollege of Electrical and New Energy, China Three Gorges University, Yichang 443002, ChinaCollege of Electrical and New Energy, China Three Gorges University, Yichang 443002, ChinaCollege of Electrical and New Energy, China Three Gorges University, Yichang 443002, ChinaCollege of Electrical and New Energy, China Three Gorges University, Yichang 443002, ChinaCollege of Electrical and New Energy, China Three Gorges University, Yichang 443002, ChinaTo further improve the efficiency of biomass energy utilization, a source-load coordinated optimization scheduling strategy considering solar thermal biomass utilization (STBU) under comprehensive demand response incentives is proposed. Firstly, on the source side, an integrated energy system (IES) coupling energy supply model with STBU is constructed, and the STBU is coupled with a power-to-gas system to achieve efficient hydrogen-blended combustion utilization of the STBU device. Secondly, on the load side, both price-based and substitution-based demand responses are introduced to improve the low-carbon performance of the IES through source-load coordinated optimization. Then, a liquid storage carbon capture system and a tiered carbon tax mechanism are introduced in the IES to enhance the system's low-carbon economic benefits, establishing an objective function to maximize the system's total revenue. On this basis, a fuzzy chance-constrained programming model considering multiple uncertainties of the IES is established. Finally, actual data from a northern region is selected to verify the feasibility and effectiveness of the model, and the impact of multiple uncertainties on the operating costs of the IES is analyzed. The results show that the model has good economic and low-carbon performance. An increase in uncertainty raises the interaction costs between the system and the external power grid.https://www.epet-info.com/dlgcjsen/article/abstract/240321266solar thermal biomass utilization (stbu) modelhydrogen-dopedintegrated demand response (idr)carbon capture cogenerationcarbon taxfuzzy opportunity planning constraints
spellingShingle ZHANG Yewei
WEN Zhong
WANG Can
NI Zhi
YAN Wenwen
HU Chuanbao
Source-load coordinated optimal scheduling strategy considering solar thermal biomass utilization under integrated demand response incentives
电力工程技术
solar thermal biomass utilization (stbu) model
hydrogen-doped
integrated demand response (idr)
carbon capture cogeneration
carbon tax
fuzzy opportunity planning constraints
title Source-load coordinated optimal scheduling strategy considering solar thermal biomass utilization under integrated demand response incentives
title_full Source-load coordinated optimal scheduling strategy considering solar thermal biomass utilization under integrated demand response incentives
title_fullStr Source-load coordinated optimal scheduling strategy considering solar thermal biomass utilization under integrated demand response incentives
title_full_unstemmed Source-load coordinated optimal scheduling strategy considering solar thermal biomass utilization under integrated demand response incentives
title_short Source-load coordinated optimal scheduling strategy considering solar thermal biomass utilization under integrated demand response incentives
title_sort source load coordinated optimal scheduling strategy considering solar thermal biomass utilization under integrated demand response incentives
topic solar thermal biomass utilization (stbu) model
hydrogen-doped
integrated demand response (idr)
carbon capture cogeneration
carbon tax
fuzzy opportunity planning constraints
url https://www.epet-info.com/dlgcjsen/article/abstract/240321266
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AT wenzhong sourceloadcoordinatedoptimalschedulingstrategyconsideringsolarthermalbiomassutilizationunderintegrateddemandresponseincentives
AT wangcan sourceloadcoordinatedoptimalschedulingstrategyconsideringsolarthermalbiomassutilizationunderintegrateddemandresponseincentives
AT nizhi sourceloadcoordinatedoptimalschedulingstrategyconsideringsolarthermalbiomassutilizationunderintegrateddemandresponseincentives
AT yanwenwen sourceloadcoordinatedoptimalschedulingstrategyconsideringsolarthermalbiomassutilizationunderintegrateddemandresponseincentives
AT huchuanbao sourceloadcoordinatedoptimalschedulingstrategyconsideringsolarthermalbiomassutilizationunderintegrateddemandresponseincentives