Robustness-verification in networked control systems via sum-of-square approach

This paper discusses an approach for closed loop robustness evaluation of nonlinear networked control systems (NCSs). The continuous-time nonlinear multi-input plant is controlled via several predesigned nonlinear discrete-time controllers which are connected to the plant through a time-triggered co...

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Hauptverfasser: Tingli Su, Longo, Stefano, Jing Na, Herrmann, G., Ningjun Fan
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Longo, Stefano
Jing Na
Herrmann, G.
Ningjun Fan
description This paper discusses an approach for closed loop robustness evaluation of nonlinear networked control systems (NCSs). The continuous-time nonlinear multi-input plant is controlled via several predesigned nonlinear discrete-time controllers which are connected to the plant through a time-triggered communication network. In particular, the communication scheduling for the actuator signals are considered. Input-multiplicative uncertainty is investigated using an l 2 -gain approach. For this, an overall model of the closed-loop system is derived. The plant is discretized using a Lie-algebraic approach, while a model of the communication network and the actuator uncertainty is augmented to the discrete plant. A lifting approach allows for nonlinear Lyapunov based l 2 -gain computation using a Sum-of-Square (SOS) optimization. A numerical example shows the effectiveness of the approach.
doi_str_mv 10.1109/ISIE.2012.6237374
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subjects Actuators
Numerical models
Optimization
Polynomials
Robustness
Taylor series
Uncertainty
title Robustness-verification in networked control systems via sum-of-square approach
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