A novel automatic generation control method with hybrid sampling for multi-area interconnected girds

Introduction: The emerging “net-zero carbon” police will accelerate the large-scale penetration of renewable energies in the power grid, which would bring strong random disturbances due to the unpredictable power output. It would affect the coordinated control performance of the distributed grids.Me...

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Published in:Frontiers in Energy Research
Main Authors: Shengxi Zhang, Feng Lan, Binglei Xue, Qingwei Chen, Xuanyu Qiu
Format: Article
Language:English
Published: Frontiers Media S.A. 2023-11-01
Subjects:
Online Access:https://www.frontiersin.org/articles/10.3389/fenrg.2023.1280724/full
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author Shengxi Zhang
Feng Lan
Binglei Xue
Qingwei Chen
Xuanyu Qiu
author_facet Shengxi Zhang
Feng Lan
Binglei Xue
Qingwei Chen
Xuanyu Qiu
author_sort Shengxi Zhang
collection DOAJ
container_title Frontiers in Energy Research
description Introduction: The emerging “net-zero carbon” police will accelerate the large-scale penetration of renewable energies in the power grid, which would bring strong random disturbances due to the unpredictable power output. It would affect the coordinated control performance of the distributed grids.Method: From the quadratic frequency modulation perspective, this paper proposes a fast Q-learning-based automatic generation control (AGC) algorithm, which combines full sampling with full expectation for multi-area coordination. A parameter σ is used to balance the state between the full sampling update and only the expectation update so as to improve the convergence accuracy. Meanwhile, fast Q-learning is incorporated by replacing the historical estimation function with the current state estimation function to accelerate the convergence speed.Results: Simulations on the IEEE two-region load frequency control model and Hubei power grid model in China have been performed to validate that the proposed algorithm can achieve optimal multi-area coordination and improve the control performance of frequency deviations caused by the strong random disturbances.Discussion: The proposed Q-learning-based AGC method outperforms the convergence accuracy, speed, and control performance compared with other reinforcement learning algorithms.
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spelling doaj-art-8035f896bbc94fe79fce9fb2d0772e6e2025-08-19T23:46:01ZengFrontiers Media S.A.Frontiers in Energy Research2296-598X2023-11-011110.3389/fenrg.2023.12807241280724A novel automatic generation control method with hybrid sampling for multi-area interconnected girdsShengxi ZhangFeng LanBinglei XueQingwei ChenXuanyu QiuIntroduction: The emerging “net-zero carbon” police will accelerate the large-scale penetration of renewable energies in the power grid, which would bring strong random disturbances due to the unpredictable power output. It would affect the coordinated control performance of the distributed grids.Method: From the quadratic frequency modulation perspective, this paper proposes a fast Q-learning-based automatic generation control (AGC) algorithm, which combines full sampling with full expectation for multi-area coordination. A parameter σ is used to balance the state between the full sampling update and only the expectation update so as to improve the convergence accuracy. Meanwhile, fast Q-learning is incorporated by replacing the historical estimation function with the current state estimation function to accelerate the convergence speed.Results: Simulations on the IEEE two-region load frequency control model and Hubei power grid model in China have been performed to validate that the proposed algorithm can achieve optimal multi-area coordination and improve the control performance of frequency deviations caused by the strong random disturbances.Discussion: The proposed Q-learning-based AGC method outperforms the convergence accuracy, speed, and control performance compared with other reinforcement learning algorithms.https://www.frontiersin.org/articles/10.3389/fenrg.2023.1280724/fullautomation generation controlhybrid samplingrenewable energyreinforcement learningartificial intelligence
spellingShingle Shengxi Zhang
Feng Lan
Binglei Xue
Qingwei Chen
Xuanyu Qiu
A novel automatic generation control method with hybrid sampling for multi-area interconnected girds
automation generation control
hybrid sampling
renewable energy
reinforcement learning
artificial intelligence
title A novel automatic generation control method with hybrid sampling for multi-area interconnected girds
title_full A novel automatic generation control method with hybrid sampling for multi-area interconnected girds
title_fullStr A novel automatic generation control method with hybrid sampling for multi-area interconnected girds
title_full_unstemmed A novel automatic generation control method with hybrid sampling for multi-area interconnected girds
title_short A novel automatic generation control method with hybrid sampling for multi-area interconnected girds
title_sort novel automatic generation control method with hybrid sampling for multi area interconnected girds
topic automation generation control
hybrid sampling
renewable energy
reinforcement learning
artificial intelligence
url https://www.frontiersin.org/articles/10.3389/fenrg.2023.1280724/full
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