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Robust Packetized MPC for Networked Systems Subject to Packet Dropouts and Input Saturation With Quantized Feedback.
IEEE Transactions on Cybernetics
|May 3, 2022
Summary
This study introduces a robust packetized predictive control framework to manage networked systems with data loss and input limits. The method ensures stability and feasibility for reliable control despite packet dropouts and quantization.
Area of Science:
- Control Systems Engineering
- Networked Systems
- Stochastic Systems
Background:
- Networked control systems face challenges from packet dropouts and input saturation.
- Quantized feedback complicates control design due to information loss.
Purpose of the Study:
- To develop a robust packetized predictive control framework for networked systems.
- To address Markovian packet dropouts and input saturation in control loops.
Main Methods:
- A Markov chain model for packet dropout was established.
- A quantized-feedback law and a packet dropout compensation strategy were designed.
- An augmented Markovian jump system model was used for analysis.
Main Results:
- The framework ensures recursive feasibility of the controller design.
- Mean-square stability of the closed-loop systems was proven.
- The method was validated through simulation on a four-tank process system.
Conclusions:
- The proposed robust packetized predictive control framework effectively handles quantized feedback, packet dropouts, and input saturation.
- The developed control strategy guarantees system stability and performance in unreliable network conditions.
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