| Citation: | LI W，CHENG X，LI Y J. Integrated security control of industrial cyber-physical systems based on new type ADETCS[J]. Journal of Beijing University of Aeronautics and Astronautics，2024，50（9）：2704-2716 （in Chinese） doi: 10.13700/j.bh.1001-5965.2022.0734
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For industrial cyber-physical system (ICPS) with false data injection (FDI) attacks and faults, the collaborative design of integrated security control and communication in the new type adaptive discrete event-triggered communication scheme (ADETCS) was studied. Firstly, the ADETCS was introduced to replace the traditional discrete event-triggered communication scheme, and an ICPS architecture with adaptive collaborative optimization of security control and communication was constructed. Secondly, through the optimization design of the threshold function in ADETCS, a new type ADETCS was obtained, which could change continuously in both directions with the system’s dynamic behaviors. Then, based on the active attack-tolerant and active fault-tolerant ideas, the Lyapunov function was constructed, and less conservative techniques such as new Bessel-Legebdre inequality and cone complementarity linearization (CCL) were used. Under the unified adaptive variable sampling framework, the solution methods of the robust estimator and integrated security controller were derived so that ICPS could defend against FDI attacks and faults at the same time and have better adaptive communication regulation ability. The simulation results show that the ingenious design of threshold function in the new type ADETCS and the application of CCL can achieve a better compromise between the integrated security control performance and resource saving of ICPS.
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