Optimal Operation Strategy for Rural Microgrid Considering Greenhouse Load Control

Impact of rural electrification is picking up, which has changed the energy structure and significantly reduced greenhouse gas emissions in rural areas. At present, due to separation management of agricultural and energy systems, agricultural cost is high, and new energy consumption in the local mic...

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Main Authors: Xueqian Fu, Yazhong Zhou, Zhonghui Wei, Yang Wang
Format: Article
Language:English
Published: China electric power research institute 2025-01-01
Series:CSEE Journal of Power and Energy Systems
Subjects:
Online Access:https://ieeexplore.ieee.org/document/10106208/
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author Xueqian Fu
Yazhong Zhou
Zhonghui Wei
Yang Wang
author_facet Xueqian Fu
Yazhong Zhou
Zhonghui Wei
Yang Wang
author_sort Xueqian Fu
collection DOAJ
description Impact of rural electrification is picking up, which has changed the energy structure and significantly reduced greenhouse gas emissions in rural areas. At present, due to separation management of agricultural and energy systems, agricultural cost is high, and new energy consumption in the local microgrid is small, but carbon emission is high. We propose a novel optimal operation strategy for a rural microgrid considering greenhouse load control, which is greenhouse environment control. We establish a greenhouse load control model, including an artificial lighting model, a heating load model, and a load shifting model. Our characteristic work is to establish a carbon dioxide model of greenhouse consumption, and we build a unique optimal operation model of a rural microgrid by combining control of carbon dioxide and control of the energy system. We simulate a rural microgrid with wind power, photovoltaic, gas-fired boiler, and cogeneration system. Summer and winter scenarios are used for analysis, as energy consumption patterns in greenhouses during these seasons are highly representative. Results show the proposed optimization strategy can effectively cut operating expenses for the rural microgrid, improve rate of new energy consumption in the local microgrid, and reduce carbon dioxide emissions.
format Article
id doaj-art-21e4d3538db84d60aabedb2516a3154e
institution DOAJ
issn 2096-0042
language English
publishDate 2025-01-01
publisher China electric power research institute
record_format Article
series CSEE Journal of Power and Energy Systems
spelling doaj-art-21e4d3538db84d60aabedb2516a3154e2025-08-20T03:11:57ZengChina electric power research instituteCSEE Journal of Power and Energy Systems2096-00422025-01-0111126927910.17775/CSEEJPES.2022.0620010106208Optimal Operation Strategy for Rural Microgrid Considering Greenhouse Load ControlXueqian Fu0Yazhong Zhou1Zhonghui Wei2Yang Wang3College of Information and Electrical Engineering, China Agricultural University,Beijing,China,100083College of Information and Electrical Engineering, China Agricultural University,Beijing,China,100083College of Information and Electrical Engineering, China Agricultural University,Beijing,China,100083College of Information and Electrical Engineering, China Agricultural University,Beijing,China,100083Impact of rural electrification is picking up, which has changed the energy structure and significantly reduced greenhouse gas emissions in rural areas. At present, due to separation management of agricultural and energy systems, agricultural cost is high, and new energy consumption in the local microgrid is small, but carbon emission is high. We propose a novel optimal operation strategy for a rural microgrid considering greenhouse load control, which is greenhouse environment control. We establish a greenhouse load control model, including an artificial lighting model, a heating load model, and a load shifting model. Our characteristic work is to establish a carbon dioxide model of greenhouse consumption, and we build a unique optimal operation model of a rural microgrid by combining control of carbon dioxide and control of the energy system. We simulate a rural microgrid with wind power, photovoltaic, gas-fired boiler, and cogeneration system. Summer and winter scenarios are used for analysis, as energy consumption patterns in greenhouses during these seasons are highly representative. Results show the proposed optimization strategy can effectively cut operating expenses for the rural microgrid, improve rate of new energy consumption in the local microgrid, and reduce carbon dioxide emissions.https://ieeexplore.ieee.org/document/10106208/Carbon dioxide emissiongreenhouse load controlmicrogridrural developmentrural electrification
spellingShingle Xueqian Fu
Yazhong Zhou
Zhonghui Wei
Yang Wang
Optimal Operation Strategy for Rural Microgrid Considering Greenhouse Load Control
CSEE Journal of Power and Energy Systems
Carbon dioxide emission
greenhouse load control
microgrid
rural development
rural electrification
title Optimal Operation Strategy for Rural Microgrid Considering Greenhouse Load Control
title_full Optimal Operation Strategy for Rural Microgrid Considering Greenhouse Load Control
title_fullStr Optimal Operation Strategy for Rural Microgrid Considering Greenhouse Load Control
title_full_unstemmed Optimal Operation Strategy for Rural Microgrid Considering Greenhouse Load Control
title_short Optimal Operation Strategy for Rural Microgrid Considering Greenhouse Load Control
title_sort optimal operation strategy for rural microgrid considering greenhouse load control
topic Carbon dioxide emission
greenhouse load control
microgrid
rural development
rural electrification
url https://ieeexplore.ieee.org/document/10106208/
work_keys_str_mv AT xueqianfu optimaloperationstrategyforruralmicrogridconsideringgreenhouseloadcontrol
AT yazhongzhou optimaloperationstrategyforruralmicrogridconsideringgreenhouseloadcontrol
AT zhonghuiwei optimaloperationstrategyforruralmicrogridconsideringgreenhouseloadcontrol
AT yangwang optimaloperationstrategyforruralmicrogridconsideringgreenhouseloadcontrol