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<p>The issue of resilient control is addressed in this paper for hidden semi-Markovian jump cyber-physical systems (HSMJCPSs) disturbed by deception attacks. To be specific, a suitable event-impulse hybrid triggered strategy is proposed for improving the control communication efficiency. Meanwhile, the sensor measurement scheduling features of HSMJCPSs with finite energy are discussed so that the energy consumption of sensors can be effectively decreased. In light of stochastic stability theory, adequate criteria are obtained with an appropriate Lyapunov function. Then, the resilient mode-dependent controllers can be designed using the matrix manipulation technique with a desired control performance. Eventually, an illustrative example is presented demonstrating the resilient event-impulse hybrid triggered (EIHT) control of HSMJCPSs with finite energy and deception attacks, corroborating the main theoretical results compared to conventional event-triggered control strategies.</p>

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Resilient event-impulse hybrid triggered control of hidden semi-Markovian jump cyber-physical systems with finite energy and deception attacks

  • 期刊论文

  • 发表日期：

    2025年3月21日

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  • Hang Fu,
  • Chao Ma

摘要

The issue of resilient control is addressed in this paper for hidden semi-Markovian jump cyber-physical systems (HSMJCPSs) disturbed by deception attacks. To be specific, a suitable event-impulse hybrid triggered strategy is proposed for improving the control communication efficiency. Meanwhile, the sensor measurement scheduling features of HSMJCPSs with finite energy are discussed so that the energy consumption of sensors can be effectively decreased. In light of stochastic stability theory, adequate criteria are obtained with an appropriate Lyapunov function. Then, the resilient mode-dependent controllers can be designed using the matrix manipulation technique with a desired control performance. Eventually, an illustrative example is presented demonstrating the resilient event-impulse hybrid triggered (EIHT) control of HSMJCPSs with finite energy and deception attacks, corroborating the main theoretical results compared to conventional event-triggered control strategies.