📖
Decentralized Maximum Distortion MMSE Attacks in Electricity Grids
Iñaki Esnaola, Samir M. Perlaza, H. Vincent Poor, Oliver Kosut

Decentralized Maximum Distortion MMSE Attacks in Electricity Grids

Science & Mathematics Published 2015 Verification Pending

Overview & Synopsis

Multiple attacker data injection attack construction in electricity grids with minimum- mean-square-error (MMSE) state estimation is studied for centralized and decentralized scenarios. A performance analysis of the trade-off between the maximum distortion that an attack can introduce and the probability of the attack being detected by the network operator is considered. Within this setting, optimal centralized attack construction strategies are studied. The decentralized case is examined in a game-theoretic setting. A novel utility function is proposed to model this trade-off and it is shown that the resulting game is a potential game. The existence and cardinality of the corresponding set of Nash Equilibria (NE) in the game is analyzed. For the particular case of two attackers, numerical results based on IEEE test systems are presented. These results suggest that attackers perform better when they seize control of power flow measurements instead of power injection measurements.

Indexed from repository: HAL Open Science (hal.science)
Loading document from verified source...
Keyboard Shortcuts: ← / → for pages • + / - for zoom • 0 to fit width Powered by Mozilla PDF.js v3.11

Document Information

Document Title Decentralized Maximum Distortion MMSE Attacks in Electricity Grids
Author / Organization Iñaki Esnaola, Samir M. Perlaza, H. Vincent Poor, Oliver Kosut
Subject & Discipline Multidisciplinary Academic Open Research
Categories Science & Mathematics
Publication Year 2015
License / Rights Open Access / Creative Commons
Resource Verification Listed PDF (Verification Pending)
Original Host Website HAL Open Science (hal.science)
File Format application/pdf (Portable Document Format)
Language EN
Catalog ID DOC-254711
Original Source Link Visit Source Page on hal.science »