DocumentCode :
800881
Title :
A new design approach for solving linear quadratic nash games of multiparameter singularly perturbed systems
Author :
Mukaidani, Hiroaki
Author_Institution :
Graduate Sch. of Educ., Hiroshima Univ., Higashi-Hiroshima, Japan
Volume :
52
Issue :
5
fYear :
2005
fDate :
5/1/2005 12:00:00 AM
Firstpage :
960
Lastpage :
974
Abstract :
In this paper, the linear quadratic Nash games for infinite horizon nonstandard multiparameter singularly perturbed systems (MSPS) without the nonsingularity assumption that is needed for the existing result are discussed. The new strategies are obtained by solving the generalized cross-coupled multiparameter algebraic Riccati equations (GCMARE). Firstly, the asymptotic expansions for the GCMARE are newly established. The main result in this paper is that the proposed algorithm which is based on the Newton´s method for solving the GCMARE guarantees the quadratic convergence. In fact, the simulation results show that the proposed algorithm succeed in improving the convergence rate dramatically compared with the previous results. It is also shown that the resulting controller achieves O(||μ||2n) approximation of the optimal cost.
Keywords :
Riccati equations; differential games; singularly perturbed systems; Newton method; asymptotic expansions; generalized cross-coupled multiparameter algebraic Riccati equations; linear quadratic Nash games; multiparameter singularly perturbed systems; quadratic convergence; Convergence; Cost function; Educational technology; Helium; Infinite horizon; Nash equilibrium; Optimal control; Power system dynamics; Power system modeling; Riccati equations; Multiparameter singularly perturbed systems (MSPS); Newton´s method; generalized cross-coupled multiparameter algebraic Riccati equations (GCMARE); linear quadratic Nash games;
fLanguage :
English
Journal_Title :
Circuits and Systems I: Regular Papers, IEEE Transactions on
Publisher :
ieee
ISSN :
1549-8328
Type :
jour
DOI :
10.1109/TCSI.2005.846668
Filename :
1427905
Link To Document :
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