A BMI Optimization Approach to Robust Output-Feedback Control

Reference

S. Kanev, C. Scherer, M. Verhaegen, and B. De Schutter, "A BMI Optimization Approach to Robust Output-Feedback Control," Proceedings of the 42nd IEEE Conference on Decision and Control, Maui, Hawaii, pp. 851-856, Dec. 2003.

Abstract

In this paper a new approach is proposed to design locally optimal robust output-feedback controllers. It is iterative by nature, and starting from any initial feasible controller it performs local optimization over a suitably defined non-convex function at each iteration. The approach features the properties of computational efficiency, guaranteed convergence to a local optimum, and applicability to a very wide range of problems. The paper also proposes a fast procedure for initially feasible controller computation based on LMIs. The design objectives considered are H2, H∞, and pole-placement constraints. The procedure consists of two steps: first an optimal robust mixed H2/H∞/pole-placement state-feedback gain is designed, which is consequently kept fixed at the second step during the design of the remaining controller matrices. The approach is demonstrated on a model of one joint of a real-life space robotic manipulator.

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Bibtex entry

@inproceedings{KanSch:03-004,
author={S. Kanev and C. Scherer and M. Verhaegen and B. {D}e Schutter},
title={A {BMI} Optimization Approach to Robust Output-Feedback Control},
booktitle={Proceedings of the 42nd IEEE Conference on Decision and Control},
address={Maui, Hawaii},
pages={851--856},
month=dec,
year={2003}
}

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