POSTER-SPECIAL SESSION 2

✦ SPECIAL SESSION 2 ✦

✦ Intelligent Event-Triggered Control for Networked Systems and Its Applications ✦

Guest Editor
Lianglin Xiong
Prof. Lianglin Xiong
Dehong Normal College
Dehong Normal College, Mangshi, China.
Research interests include event-triggered control, networked systems, and stochastic control.
📮 Submission
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📅 Deadline: October 12, 2026
Guest Editor
Haiyang Zhang
Assoc. Prof. Haiyang Zhang
Yunnan Minzu University 
The School of Mathematics and Computer Science, Yunnan Minzu University, Kunming, China. His research focuses on intelligent control, fuzzy systems, and adaptive control.
Guest Editor
Xiang Xie
Assoc. Prof. Xiang Xie
Assoc. Prof.  Shandong Normal University
The School of Mathematics and Statistics, Shandong Normal University, Jinan, China. His research interests include nonlinear dynamics, switched systems, and secure control.
Guest Editor
Qiang Li
Assoc. Prof. Qiang Li
Anhui Agricultural University
The School of Artificial Intelligence, Anhui Agricultural University, Hefei, China. His research covers multi-agent systems, event-triggered control, and intelligent optimization.
Intelligent Event-Triggered Control for Networked Systems and Its Applications

With the deep integration of cyberspace and physical processes, networked systems have become a fundamental infrastructure for modern intelligent industries, including smart manufacturing, intelligent transportation, smart grids, autonomous vehicles, aerospace systems, robotic networks, and the Industrial Internet of Things. While offering advantages such as flexibility, scalability, and cost efficiency, they face significant challenges including limited communication bandwidth, network-induced delays, packet losses, stochastic disturbances, and cyber-attacks. To address these constraints, Event-Triggered Control (ETC) has emerged as an effective resource-aware paradigm, reducing communication and computation loads by updating control actions only when necessary. Meanwhile, practical networked systems often operate in uncertain environments with abrupt changes in communication quality, network topology, or operating conditions—phenomena naturally modeled by Markov jump systems, switching systems, and hidden Markov models. Integrating ETC with stochastic switching systems enhances adaptability and resilience under random variations. Recent advances in artificial intelligence, including data-driven control, reinforcement learning, and neural networks, have further enabled intelligent event-triggered mechanisms without requiring precise mathematical models. Their combination with Markov jump systems offers new opportunities for autonomous and adaptive control under uncertain dynamics and partially known transition probabilities. Given the increasing prevalence of cyber-attacks such as denial-of-service and false-data injection, resilient and secure event-triggered control has become a critical research frontier.

This Special Issue invites contributions on theoretical advances, methodological developments, and applications in intelligent event-triggered control for networked systems, with particular interest in learning-based methods, stochastic switching systems, and cyber-security.
✦ Topics of Interest (include but not limited to)
Intelligent Event-Triggered Control Strategies
  • Data-driven event-triggered control based on offline and online operational data.
  • Reinforcement learning-based event-triggered control and adaptive triggering policy optimization.
  • Adaptive dynamic programming and approximate dynamic programming for event-triggered systems.
  • Event-triggered control integrated with neural networks, fuzzy systems, and machine learning techniques.
  • Data-driven event-triggered control for Markov jump and switching systems.
  • Reinforcement learning and adaptive dynamic programming for Markov jump systems.
  • Intelligent event-triggered control under partially known or unknown Markov transition probabilities.
  • Dynamic event-triggered and self-triggered control mechanisms.
  • Optimal, finite-time, fixed-time, and prescribed-performance event-triggered control.
Resilient Event-Triggered Control under Cyber-Attacks and Uncertainties
  • Event-triggered control under denial-of-service attacks.
  • Event-triggered control under false-data injection attacks and deception attacks.
  • Event-triggered control under replay attacks and hybrid cyber-attacks.
  • Secure and privacy-preserving event-triggered control.
  • Secure event-triggered control for Markov jump systems under cyber-attacks.
  • Fault-tolerant and attack-resilient event-triggered control.
  • Event-triggered control under model uncertainties and external disturbances.
  • Secure estimation, filtering, and monitoring for cyber-physical systems.
  • Resilient distributed event-triggered control for networked systems.
  • Event-triggered control for stochastic systems subject to random disturbances.
  • Event-triggered control for Markov jump systems and switching systems.
Event-Triggered Control under Stochastic and Switching Environments
  • Distributed and cooperative event-triggered control for Markov jump multi-agent systems.
  • Event-triggered filtering, estimation, and fault diagnosis for stochastic and switching systems.
  • Event-triggered control under communication uncertainties and random network environments.
  • Event-triggered control with packet losses, quantization effects, and network-induced delays.
  • Stochastic stability and performance analysis of event-triggered systems.

 

Applications of Intelligent Event-Triggered Control
  • Formation control and cooperative control of unmanned aerial vehicles (UAVs).
  • Satellite constellation coordination and aerospace systems.
  • Autonomous underwater vehicles and marine cyber-physical systems.
  • Networked robotic systems and industrial Internet of Things.
  • Precision agriculture and automated greenhouse systems.
  • Networked healthcare systems, physiological closed-loop control, and tele-operated surgery.
  • Secure and resilient control applications based on Markov jump and switching system models.