2022
DOI: 10.1016/j.automatica.2022.110345
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Sliding mode-based adaptive resilient control for Markovian jump cyber–physical systems in face of simultaneous actuator and sensor attacks

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Cited by 21 publications
(5 citation statements)
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“…If the attack causes the actuators to perform anomalous operations, it may result in damage or the malfunctioning of the system’s physical components. This could lead to system downtime or reduced reliability, thereby impacting the normal operation of the CPS [ 31 ].…”
Section: Cyber Attacksmentioning
confidence: 99%
“…If the attack causes the actuators to perform anomalous operations, it may result in damage or the malfunctioning of the system’s physical components. This could lead to system downtime or reduced reliability, thereby impacting the normal operation of the CPS [ 31 ].…”
Section: Cyber Attacksmentioning
confidence: 99%
“…If the parameter 𝜇 𝜎 (t) in the sensor attack model in our article satisfies 0 < 𝜇 𝜎 (t) < 1, and the parameter 𝜌 a,𝜎 (t) in the actuator attack model in our article satisfies 0 < 𝜌 a,𝜎 (t) < 1, this security control problem is similar to the sensor and actuator fault-tolerant problem. Specifically, many adaptive control schemes are proposed to reduce the impact of sensor and actuator faults in other works (see the work in References [37][38][39][40]. As for the sensor and actuator attack models considered in our article, the parameters 𝜇 𝜎 (t) and 𝜌 a,𝜎 (t) just satisfy 𝜇 𝜎 (t) ≠ −1 and 𝜌 a,𝜎 −1, which makes more drastic attacks be tolerated, and the considered models include the case of sensor and actuator faults.…”
Section: Constructing the Following Lyapunov Functionmentioning
confidence: 99%
“…Remark If the parameter μσfalse(tfalse)$$ {\mu}_{\sigma }(t) $$ in the sensor attack model in our article satisfies 0<μσfalse(tfalse)<1$$ 0<{\mu}_{\sigma }(t)<1 $$, and the parameter ρa,σfalse(tfalse)$$ {\rho}_{a,\sigma }(t) $$ in the actuator attack model in our article satisfies 0<ρa,σfalse(tfalse)<1$$ 0<{\rho}_{a,\sigma }(t)<1 $$, this security control problem is similar to the sensor and actuator fault‐tolerant problem. Specifically, many adaptive control schemes are proposed to reduce the impact of sensor and actuator faults in other works (see the work in References 37‐40). As for the sensor and actuator attack models considered in our article, the parameters μσfalse(tfalse)$$ {\mu}_{\sigma }(t) $$ and ρa,σfalse(tfalse)$$ {\rho}_{a,\sigma }(t) $$ just satisfy μσfalse(tfalse)prefix−1$$ {\mu}_{\sigma }(t)\ne -1 $$ and ρa,σfalse(tfalse)prefix−1$$ {\rho}_{a,\sigma }(t)\ne -1 $$, which makes more drastic attacks be tolerated, and the considered models include the case of sensor and actuator faults.…”
Section: Adaptive Control Design For Input‐dependent Actuator Attacksmentioning
confidence: 99%
“…In order to estimate the time-series signals like voltage and current, the data-driven techniques are widely adopted because of having certain advantages [36] over classical model-based methods [8,[26][27][28][29][30][31]. Nonetheless, the classical neural network has several drawbacks, for example, it faces the random gradient explosion for deeper network while considering the long-term signal, which may lead to trapping in a locally optimal solution rather than offering a global optimum solution.…”
Section: Introduction Of Grumentioning
confidence: 99%