A Leader-Follower Game Theoretic Approach to Arrest Cascading Failure in Smart Grid
Sohini Roy, Arunabha Sen

TL;DR
This paper introduces a leader-follower game theoretic approach to prevent cascading failures in smart grids by using dependency models and contingency lists, validated on IEEE bus systems.
Contribution
It proposes a novel adaptive hardening technique based on game theory to arrest cascading failures, combining fast heuristic and ILP solutions for contingency analysis.
Findings
Heuristic and ILP solutions produce similar contingency lists for IEEE 14-Bus.
MIIM-based models yield more realistic damage predictions than IIM.
Adaptive hardening improves network resilience in larger IEEE 118-Bus systems.
Abstract
The Smart Grid System (SGS) is a joint network comprising the power and the communication network. In this paper, the underlying intra-and-interdependencies between entities for a given SGS is captured using a dependency model called Modified Implicative Interdependency Model (MIIM) [1]. Given an integer K, the K-contingency list problem gives the list of K-most critical entities, failure of which maximizes the network damage at the current time. The problem being NP complete [2] and owing to the higher running time of the given Integer Linear Programming (ILP) based solution [3], a much faster heuristic solution to generate an event driven self-updating K-contingency list [4] is also given in this paper. Based on the contingency lists obtained from both the solutions, this paper proposes an adaptive entity hardening technique based on a leader-follower game theoretic approach that…
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Taxonomy
TopicsInfrastructure Resilience and Vulnerability Analysis · Smart Grid Security and Resilience · Software-Defined Networks and 5G
