A Novel Approach in Strategic Planning of Power Networks Against Physical Attacks
Hamzeh Davarikia, Masoud Barati, Mustafa Al-Assad, Yupo Chan

TL;DR
This paper introduces a strategic planning approach for power network security against physical attacks, combining hardening with deception tactics like misinformation and posturing, formulated as tri-level optimization and validated on standard systems.
Contribution
It presents a novel combination of hardening and deception strategies, including mathematical modeling and optimization, to improve power network security against deliberate physical attacks.
Findings
Deception strategies reduce overall protection costs.
Posturing enhances the effectiveness of defense measures.
Simulation results show significant cost savings with the proposed approach.
Abstract
The reported work points at developing a practical approach for power transmission planners to secure power networks from potential deliberate attacks. We study the interaction between a system planner (defender) and a rational attacker who threatens the operation of the power grid. In addition to the commonly used hardening strategy for protecting the network, a new sort of resource is introduced under the deception concept. Feint and deception are acknowledged as effective tools for misleading the attacker in strategic planning. To this end, the defender deception is mathematically formulated by releasing misinformation about his plan in the shared cognition-based model. To reduce the risk of damage in case of deception failure, preemptive-goal programming is utilized to prioritize the hardening strategy for the vital components. Furthermore, the value of posturing is introduced which…
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Taxonomy
TopicsInfrastructure Resilience and Vulnerability Analysis · Smart Grid Security and Resilience · Optimal Power Flow Distribution
