TY - JOUR
T1 - Coordinating electric vehicle charging with multiagent deep Q-networks for smart grid load balancing
AU - Maguluri, Lakshmana Phaneendra
AU - Umasankar, A.
AU - Vijendra Babu, D.
AU - Anselin Nisha, A. Sahaya
AU - Prabhu, M. Ramkumar
AU - Tilwani, Shouket Ahmad
N1 - Publisher Copyright:
© 2024 Elsevier Inc.
PY - 2024/9
Y1 - 2024/9
N2 - Integrating EVs (Electric Vehicles) with the electrical system presents essential load distribution difficulties because EV recharging structures are unpredictable and variable. The article presents an innovative technique employing multiple-agent deeper Q-Networking (MADQN) to coordinate electric automobiles and improve the electricity system balance of load. The suggested MADQN simulation rapidly optimizes battery charge plans by utilizing the capabilities of multiple agent networks as well as deeper reinforced learning. The framework adjusts to current network situations utilizing cooperative decision-making between substances, considering variables like a need for power, accessibility to green energy sources, and protection of the arrangement. Beneficial load distribution is made possible when reducing expenses and ecological damage because of the system's capacity to gather data from and modify intricate, changing circumstances. The findings from the modelling indicate how well the suggested MADQN method works to enhance network efficiency, lower peak usage, and use more sustainable power resources. These factors help build a more robust, adaptable, intelligent grid environment.
AB - Integrating EVs (Electric Vehicles) with the electrical system presents essential load distribution difficulties because EV recharging structures are unpredictable and variable. The article presents an innovative technique employing multiple-agent deeper Q-Networking (MADQN) to coordinate electric automobiles and improve the electricity system balance of load. The suggested MADQN simulation rapidly optimizes battery charge plans by utilizing the capabilities of multiple agent networks as well as deeper reinforced learning. The framework adjusts to current network situations utilizing cooperative decision-making between substances, considering variables like a need for power, accessibility to green energy sources, and protection of the arrangement. Beneficial load distribution is made possible when reducing expenses and ecological damage because of the system's capacity to gather data from and modify intricate, changing circumstances. The findings from the modelling indicate how well the suggested MADQN method works to enhance network efficiency, lower peak usage, and use more sustainable power resources. These factors help build a more robust, adaptable, intelligent grid environment.
KW - Deep Q-networks
KW - Electric vehicle charging
KW - Grid optimization
KW - Load balancing
KW - Multiagent systems
KW - Reinforcement learning
KW - Smart grid
UR - http://www.scopus.com/inward/record.url?scp=85193200903&partnerID=8YFLogxK
U2 - 10.1016/j.suscom.2024.100993
DO - 10.1016/j.suscom.2024.100993
M3 - Article
AN - SCOPUS:85193200903
SN - 2210-5379
VL - 43
JO - Sustainable Computing: Informatics and Systems
JF - Sustainable Computing: Informatics and Systems
M1 - 100993
ER -