Power source–power grid coordinated typhoon defense strategy based on multiagent dynamic game theory
A power source–power grid coordinated typhoon defense strategy is proposed in this study to minimize the cost of power grid anti-typhoon reinforcement measures and improve defense efficiency. It is based on multiagent dynamic game theory. This strategy regards a typhoon as a rational gamer that alwa...
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doaj-fdc03ec7f87c42e38a4bad73eee5b26b2021-08-18T04:21:53ZengKeAi Communications Co., Ltd.Global Energy Interconnection2096-51172021-06-0143285294Power source–power grid coordinated typhoon defense strategy based on multiagent dynamic game theoryKai Su0Liping Jiang1Jizhen Liu2Global Energy Interconnection Group Co. Ltd., Ethiopia Branch, 1000, Addis Ababa, Ethiopia; State Grid Energy Research Institute Co. Ltd., Beijing, 102209, P. R. China; North China Electric Power University, Beijing, 102206, P.R. ChinaState Grid Energy Research Institute Co. Ltd., Beijing, 102209, P. R. ChinaNorth China Electric Power University, Beijing, 102206, P.R. ChinaA power source–power grid coordinated typhoon defense strategy is proposed in this study to minimize the cost of power grid anti-typhoon reinforcement measures and improve defense efficiency. It is based on multiagent dynamic game theory. This strategy regards a typhoon as a rational gamer that always causes the greatest damage. Together with the grid planner and black start unit (BSU) planner, it forms a multiagent defense–attack–defense dynamic game model naturally. The model is adopted to determine the optimal reinforcements for the transmission lines, black start power capacity, and location. Typhoon Hato, which struck a partial coastal area in Guangdong province in China in 2017, was adopted to formulate a step-by-step model of a typhoon attacking coastal area power systems. The results were substituted into the multiagent defense–attack–defense dynamic game model to obtain the optimal transmission line reinforcement positions, as well as optimal BSU capacity and geographic positions. An effective typhoon defense strategy and minimum load shedding were achieved, demonstrating the feasibility and correctness of the proposed strategy. The related theories and methods of this study have positive significance for the prevention of uncertain large-scale natural disasters.http://www.sciencedirect.com/science/article/pii/S2096511721000694Multiagent planningDynamic gameTyphoonBlackout defense |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Kai Su Liping Jiang Jizhen Liu |
spellingShingle |
Kai Su Liping Jiang Jizhen Liu Power source–power grid coordinated typhoon defense strategy based on multiagent dynamic game theory Global Energy Interconnection Multiagent planning Dynamic game Typhoon Blackout defense |
author_facet |
Kai Su Liping Jiang Jizhen Liu |
author_sort |
Kai Su |
title |
Power source–power grid coordinated typhoon defense strategy based on multiagent dynamic game theory |
title_short |
Power source–power grid coordinated typhoon defense strategy based on multiagent dynamic game theory |
title_full |
Power source–power grid coordinated typhoon defense strategy based on multiagent dynamic game theory |
title_fullStr |
Power source–power grid coordinated typhoon defense strategy based on multiagent dynamic game theory |
title_full_unstemmed |
Power source–power grid coordinated typhoon defense strategy based on multiagent dynamic game theory |
title_sort |
power source–power grid coordinated typhoon defense strategy based on multiagent dynamic game theory |
publisher |
KeAi Communications Co., Ltd. |
series |
Global Energy Interconnection |
issn |
2096-5117 |
publishDate |
2021-06-01 |
description |
A power source–power grid coordinated typhoon defense strategy is proposed in this study to minimize the cost of power grid anti-typhoon reinforcement measures and improve defense efficiency. It is based on multiagent dynamic game theory. This strategy regards a typhoon as a rational gamer that always causes the greatest damage. Together with the grid planner and black start unit (BSU) planner, it forms a multiagent defense–attack–defense dynamic game model naturally. The model is adopted to determine the optimal reinforcements for the transmission lines, black start power capacity, and location. Typhoon Hato, which struck a partial coastal area in Guangdong province in China in 2017, was adopted to formulate a step-by-step model of a typhoon attacking coastal area power systems. The results were substituted into the multiagent defense–attack–defense dynamic game model to obtain the optimal transmission line reinforcement positions, as well as optimal BSU capacity and geographic positions. An effective typhoon defense strategy and minimum load shedding were achieved, demonstrating the feasibility and correctness of the proposed strategy. The related theories and methods of this study have positive significance for the prevention of uncertain large-scale natural disasters. |
topic |
Multiagent planning Dynamic game Typhoon Blackout defense |
url |
http://www.sciencedirect.com/science/article/pii/S2096511721000694 |
work_keys_str_mv |
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1721203724865503232 |