On the Asymptotic Structure of the Stabilizing Solution of the Riccati Equation Arising in Connection with the Linear Quadratic Regulator Problem for a System Described by Ito Differential Equations with Two Fast Time Scales
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DRĂGAN, Vasile, POPA, I.-L., ABERKANE, S.. On the Asymptotic Structure of the Stabilizing Solution of the Riccati Equation Arising in Connection with the Linear Quadratic Regulator Problem for a System Described by Ito Differential Equations with Two Fast Time Scales. In: Conference on Applied and Industrial Mathematics: CAIM 2018, 20-22 septembrie 2018, Iași, România. Chișinău, Republica Moldova: Casa Editorial-Poligrafică „Bons Offices”, 2018, Ediţia a 26-a, p. 75. ISBN 978-9975-76-247-2.
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Conference on Applied and Industrial Mathematics
Ediţia a 26-a, 2018
Conferința "Conference on Applied and Industrial Mathematics"
Iași, România, Romania, 20-22 septembrie 2018

On the Asymptotic Structure of the Stabilizing Solution of the Riccati Equation Arising in Connection with the Linear Quadratic Regulator Problem for a System Described by Ito Differential Equations with Two Fast Time Scales


Pag. 75-75

Drăgan Vasile1, Popa I.-L.2, Aberkane S.3
 
1 "Simion Stoilov" Institute of Mathematics of Romanian Academy,
2 ”1 Decembrie 1918” University of Alba Iulia,
3 Universitatea din Lorena
 
 
Disponibil în IBN: 1 iunie 2022


Rezumat

We consider a stochastic optimal control problem described by a quadratic performance criterion and a linear controlled system modeled by a system of singularly perturbed It^o di erential equations with two fast time scales. Our goal is to analyse the asymptotic structure with respect to the small parameters "j > 0; j = 1; 2 associated to the two fast time scales of the stabilizing solution of the matrix Riccati equation associated to the optimal control problem under consideration. The results derived in this stochastic framework cannot be obtained mutatis-mutandis from the already existing ones in the deterministic case, as those from [1]. The knowledge of the asymptotic structure of the stabilizing solution of the Riccati equation allows us to avoid the ill conditioning of the numerical computations required for obtaining the gain matrix of the optimal control. Also, the analysis performed in this work may be used for the design of a near optimal control for many practical applications in which the values of the small parameters are not precisely known.