An optimal electricity consumption strategy for steel enterprises with short processes in the context of low-carbon DR

Currently, large industrial enterprises, such as steel mills, have reduced electricity costs by participating in demand response programs; however, they have not yet achieved their carbon and emission reduction goals. To address this, an optimal electricity consumption strategy is proposed for steel...

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Main Authors: YAN Yue, FENG Haoran, GUO Yihan, CHEN Xiang, SONG Jinwei, ZHANG Shize, HE Qi
Format: Article
Language:zho
Published: zhejiang electric power 2025-05-01
Series:Zhejiang dianli
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Online Access:https://zjdl.cbpt.cnki.net/WKE3/WebPublication/paperDigest.aspx?paperID=a5c863a2-0dc1-4fb6-adaf-32ea5a578fb1
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author YAN Yue
FENG Haoran
GUO Yihan
CHEN Xiang
SONG Jinwei
ZHANG Shize
HE Qi
author_facet YAN Yue
FENG Haoran
GUO Yihan
CHEN Xiang
SONG Jinwei
ZHANG Shize
HE Qi
author_sort YAN Yue
collection DOAJ
description Currently, large industrial enterprises, such as steel mills, have reduced electricity costs by participating in demand response programs; however, they have not yet achieved their carbon and emission reduction goals. To address this, an optimal electricity consumption strategy is proposed for steel enterprises with short processes in the context of low-carbon demand response (DR). First, the resource-task network (RTN) model is used to model the various stages of short-process steel production. Next, based on daily regional electricity carbon emission factor curves and carbon pricing, the electricity consumption strategy of enterprises participating in low-carbon demand response is optimized. This strategy fully schedules the start-up and shutdown of various production equipment to reduce both the enterprises’ energy costs and carbon emissions. Subsequently, the behavior of steel enterprises in participating in low-carbon demand response under different scenarios is simulated, and the optimized electricity consumption strategy after participation is compared with the pre-optimization strategy in terms of total cost and carbon reduction. The results validate the effectiveness of the proposed method. Finally, the impact of carbon pricing and carbon emission factor curves on low-carbon demand response is explored.
format Article
id doaj-art-afb5b57dfa58465a8fbb7cdb886ea526
institution OA Journals
issn 1007-1881
language zho
publishDate 2025-05-01
publisher zhejiang electric power
record_format Article
series Zhejiang dianli
spelling doaj-art-afb5b57dfa58465a8fbb7cdb886ea5262025-08-20T02:03:07Zzhozhejiang electric powerZhejiang dianli1007-18812025-05-014459010010.19585/j.zjdl.2025050091007-1881(2025)05-0090-11An optimal electricity consumption strategy for steel enterprises with short processes in the context of low-carbon DRYAN Yue0FENG Haoran1GUO Yihan2CHEN Xiang3SONG Jinwei4ZHANG Shize5HE Qi6BDC of State Grid Corporation of China, Beijing 100052, ChinaSichuan Energy Internet Research Institute, Tsinghua University, Chengdu 610299, ChinaSichuan Energy Internet Research Institute, Tsinghua University, Chengdu 610299, ChinaBDC of State Grid Corporation of China, Beijing 100052, ChinaBDC of State Grid Corporation of China, Beijing 100052, ChinaBDC of State Grid Corporation of China, Beijing 100052, ChinaBDC of State Grid Corporation of China, Beijing 100052, ChinaCurrently, large industrial enterprises, such as steel mills, have reduced electricity costs by participating in demand response programs; however, they have not yet achieved their carbon and emission reduction goals. To address this, an optimal electricity consumption strategy is proposed for steel enterprises with short processes in the context of low-carbon demand response (DR). First, the resource-task network (RTN) model is used to model the various stages of short-process steel production. Next, based on daily regional electricity carbon emission factor curves and carbon pricing, the electricity consumption strategy of enterprises participating in low-carbon demand response is optimized. This strategy fully schedules the start-up and shutdown of various production equipment to reduce both the enterprises’ energy costs and carbon emissions. Subsequently, the behavior of steel enterprises in participating in low-carbon demand response under different scenarios is simulated, and the optimized electricity consumption strategy after participation is compared with the pre-optimization strategy in terms of total cost and carbon reduction. The results validate the effectiveness of the proposed method. Finally, the impact of carbon pricing and carbon emission factor curves on low-carbon demand response is explored.https://zjdl.cbpt.cnki.net/WKE3/WebPublication/paperDigest.aspx?paperID=a5c863a2-0dc1-4fb6-adaf-32ea5a578fb1low-carbon demand responseshort-process steelmakingrtnelectricity consumption strategy optimizationcarbon emission factor for regional electricity consumption
spellingShingle YAN Yue
FENG Haoran
GUO Yihan
CHEN Xiang
SONG Jinwei
ZHANG Shize
HE Qi
An optimal electricity consumption strategy for steel enterprises with short processes in the context of low-carbon DR
Zhejiang dianli
low-carbon demand response
short-process steelmaking
rtn
electricity consumption strategy optimization
carbon emission factor for regional electricity consumption
title An optimal electricity consumption strategy for steel enterprises with short processes in the context of low-carbon DR
title_full An optimal electricity consumption strategy for steel enterprises with short processes in the context of low-carbon DR
title_fullStr An optimal electricity consumption strategy for steel enterprises with short processes in the context of low-carbon DR
title_full_unstemmed An optimal electricity consumption strategy for steel enterprises with short processes in the context of low-carbon DR
title_short An optimal electricity consumption strategy for steel enterprises with short processes in the context of low-carbon DR
title_sort optimal electricity consumption strategy for steel enterprises with short processes in the context of low carbon dr
topic low-carbon demand response
short-process steelmaking
rtn
electricity consumption strategy optimization
carbon emission factor for regional electricity consumption
url https://zjdl.cbpt.cnki.net/WKE3/WebPublication/paperDigest.aspx?paperID=a5c863a2-0dc1-4fb6-adaf-32ea5a578fb1
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