Real-time pricing method for VPP demand response based on PER-DDPG algorithm

被引:29
作者
Kong, Xiangyu [1 ]
Lu, Wenqi [1 ]
Wu, Jianzhong [2 ]
Wang, Chengshan [1 ]
Zhao, Xv [1 ]
Hu, Wei [3 ]
Shen, Yu [3 ]
机构
[1] Tianjin Univ, Key Lab, Minist Educ Smart Power Grids, Tianjin 300072, Peoples R China
[2] Cardiff Univ, Sch Engn, Cardiff, Wales
[3] Elect Power Res Inst State Grid Hubei Elect Power, Wuhan 430077, Hubei, Peoples R China
关键词
Demand response; Neural turing machine; VPP; Renewable energy consumption; OPTIMIZATION; MODEL;
D O I
10.1016/j.energy.2023.127036
中图分类号
O414.1 [热力学];
学科分类号
摘要
Through advanced information communication and management system, virtual power plant (VPP) can realize the ag-gregation and coordination optimization of distributed energy, energy storage system, controllable load and other distributed energy resources. However, when making real-time price decisions according to users' demand response (DR) characteristics, the optimization effect of VPP is still limited by the evaluation accuracy of users' DR potential and the computational burden of continuous decisions. By combining gate recurrent unit (GRU) and attention mechanism (AM), Neural Turing Machine (NTM) can extract users' response features in different en-vironments and improve the accuracy of evaluating DR potential. Subsequently, based on the evaluation results, a deep deterministic policy gradient (DDPG) algorithm relying on prioritized experience replay (PER) is used to formulate a real-time electricity price plan. Ultimately, VPP achieves multi-objective optimization through DR management, which helps to increase the consumption amount of renewable energy resources, smooth its power fluctuation, and reduce users' electricity cost. Case study results show that the proposed method can improve the accuracy of the DR potential evaluation, reduce the response deviation to about 3%, and enhance the real-time decision calculation efficiency by 17%, which helps to optimize the smooth consumption of renewable energy.
引用
收藏
页数:13
相关论文
共 39 条
[1]   Multi-agent microgrid energy management based on deep learning forecaster [J].
Afrasiabi, Mousa ;
Mohammadi, Mohammad ;
Rastegar, Mohammad ;
Kargarian, Amin .
ENERGY, 2019, 186
[2]   Crude oil price prediction model with long short term memory deep learning based on prior knowledge data transfer [J].
Cen, Zhongpei ;
Wang, Jun .
ENERGY, 2019, 169 :160-171
[3]   Aggregate modeling of fast-acting demand response and control under real-time pricing [J].
Chassin, David P. ;
Rondeau, Daniel .
APPLIED ENERGY, 2016, 181 :288-298
[4]   A Day Ahead Electrical Appliance Planning of Residential Units in a Smart Home Network Using ITS-BF Algorithm [J].
Dashtaki, Amir Ali ;
Khaki, Morteza ;
Zand, Mohammad ;
Nasab, Mostafa Azimi ;
Sanjeevikumar, P. ;
Samavat, Tina ;
Nasab, Morteza Azimi ;
Khan, Baseem .
INTERNATIONAL TRANSACTIONS ON ELECTRICAL ENERGY SYSTEMS, 2022, 2022
[5]  
Demidovskij A, 2021, INT C EL COMM COMP E, DOI [10.1109/ICECCE52056.2021.9514138.2021, DOI 10.1109/ICECCE52056.2021.9514138.2021]
[6]   Intelligent Multi-Microgrid Energy Management Based on Deep Neural Network and Model-Free Reinforcement Learning [J].
Du, Yan ;
Li, Fangxing .
IEEE TRANSACTIONS ON SMART GRID, 2020, 11 (02) :1066-1076
[7]   Energy price prediction based on independent component analysis and gated recurrent unit neural network [J].
E, Jianwei ;
Ye, Jimin ;
He, Lulu ;
Jin, Haihong .
ENERGY, 2019, 189
[8]   Optimization of a multiple-scale renewable energy-based virtual power plant in the UK [J].
Elgamal, Ahmed Hany ;
Kocher-Oberlehner, Gudrun ;
Robu, Valentin ;
Andoni, Merlinda .
APPLIED ENERGY, 2019, 256
[9]   Online Optimization for Real-Time Peer-to-Peer Electricity Market Mechanisms [J].
Guo, Zhenwei ;
Pinson, Pierre ;
Chen, Shibo ;
Yang, Qinmin ;
Yang, Zaiyue .
IEEE TRANSACTIONS ON SMART GRID, 2021, 12 (05) :4151-4163
[10]   Day-ahead stochastic multi-objective economic/emission operational scheduling of a large scale virtual power plant [J].
Hadayeghparast, Shahrzad ;
Farsangi, Alireza SoltaniNejad ;
Shayanfar, Heidarali .
ENERGY, 2019, 172 :630-646