Analysis of Leveling Control System via Iterative Linear Matrix Inequalities with Full Order Observer


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Abstract. This paper investigates leveling control system of suspended access platform using an observer-based controller. Uncertain linear systems for leveling control are derived and represented in terms of a set of matrix inequalities. In the system, all state variables needn’t be measured; the perturbations of leveling control are assumed to be described by structural uncertainties. The stiff problem is avoided since the design procedure is independent of the small parameter. The control problem can be effectively solved by the proposed iterative linear matrix inequality approach. The convergence of the algorithms is also studied. Furthermore, a numerical example and simulation results are given to illustrate the effectiveness of proposed method.



Advanced Materials Research (Volumes 472-475)

Edited by:

Wenzhe Chen, Xipeng Xu, Pinqiang Dai, Yonglu Chen and Zhengyi Jiang




J. Sun et al., "Analysis of Leveling Control System via Iterative Linear Matrix Inequalities with Full Order Observer", Advanced Materials Research, Vols. 472-475, pp. 1473-1476, 2012

Online since:

February 2012




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