Learning for Feasible Region on Coal Mine Virtual Power Plants with Imperfect Information

Fuente: arXiv
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Auteurs principaux: Huang, Hongxu, Lyu, Ruike, Feng, Cheng, Zhong, Haiwang, Gooi, H. B., Li, Bo, Liang, Rui
Format: Preprint
Publié: 2025
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author Huang, Hongxu
Lyu, Ruike
Feng, Cheng
Zhong, Haiwang
Gooi, H. B.
Li, Bo
Liang, Rui
author_facet Huang, Hongxu
Lyu, Ruike
Feng, Cheng
Zhong, Haiwang
Gooi, H. B.
Li, Bo
Liang, Rui
contents The feasible region assessment (FRA) in industrial virtual power plants (VPPs) is driven by the need to activate large-scale latent industrial loads for demand response, making it essential to aggregate these flexible resources for peak regulation. However, the large number of devices and the need for privacy preservation in coal mines pose challenges to accurately aggregating these resources into a cohesive coal mine VPP. In this paper, we propose an efficient and reliable data-driven approach for FRA in the coal mine VPP that can manage incomplete information. Our data-driven FRA algorithm approximates equipment and FRA parameters based on historical energy dispatch data, effectively addressing the challenges of imperfect information. Simulation results illustrate that our method approximates the accurate feasible operational boundaries under dynamic and imperfect information conditions.
format Preprint
id arxiv_https___arxiv_org_abs_2503_00701
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Learning for Feasible Region on Coal Mine Virtual Power Plants with Imperfect Information
Huang, Hongxu
Lyu, Ruike
Feng, Cheng
Zhong, Haiwang
Gooi, H. B.
Li, Bo
Liang, Rui
Systems and Control
The feasible region assessment (FRA) in industrial virtual power plants (VPPs) is driven by the need to activate large-scale latent industrial loads for demand response, making it essential to aggregate these flexible resources for peak regulation. However, the large number of devices and the need for privacy preservation in coal mines pose challenges to accurately aggregating these resources into a cohesive coal mine VPP. In this paper, we propose an efficient and reliable data-driven approach for FRA in the coal mine VPP that can manage incomplete information. Our data-driven FRA algorithm approximates equipment and FRA parameters based on historical energy dispatch data, effectively addressing the challenges of imperfect information. Simulation results illustrate that our method approximates the accurate feasible operational boundaries under dynamic and imperfect information conditions.
title Learning for Feasible Region on Coal Mine Virtual Power Plants with Imperfect Information
topic Systems and Control
url https://arxiv.org/abs/2503.00701