Title :
Some remarks on noncausal systems design for linear continuous-time Markovian jump systems from the point of view of computational algorithms
Abstract :
In order to design tracking systems (control or state estimation) for a class of systems with rapid or abrupt changes, it is effective in improving tracking performance to consider future information of reference signals or observations, i.e., noncausal information. In this paper we study H∞ tracking control problems with preview and H∞ smoothig problems for a class of linear continuous-time Markovian jump systems by unified game theoretic approach. We also give some remarks on noncausal systems design for such systems from the point of view of computational algorithms on actual design of large-scale highly functional systems. The necessary and sufficient conditions for the solvability of the H∞ tracking control problems by state feedback and H∞ smoothing problems are given by coupled Riccati differential equations with terminal conditions and initial conditions respectively. Correspondingly noncausal compensators introducing future information are given by coupled differential equations with terminal conditions, while causal controllers or estimators are uncoupled.
Keywords :
H∞ control; Markov processes; Riccati equations; causality; computability; continuous time systems; control system synthesis; differential equations; game theory; linear systems; signal processing; state estimation; state feedback; tracking; H∞ smoothing problems; H∞ tracking control; actual design; causal controllers; causal estimators; computational algorithms; coupled Riccati differential equations; coupled differential equations; game theoretic approach; large-scale highly functional systems; linear continuous-time Markovian jump systems; necessary and sufficient conditions; noncausal compensators; noncausal information; noncausal systems design; reference signals; solvability; state estimation; state feedback; terminal conditions; tracking performance; tracking systems design; Algorithm design and analysis; Differential equations; Equations; Games; Heuristic algorithms; Smoothing methods; State estimation; H∞ theory; Markovian jump systems; coupled differential Riccati equations; smoothing; tracking control with preview;
Conference_Titel :
SICE Annual Conference (SICE), 2011 Proceedings of
Conference_Location :
Tokyo
Print_ISBN :
978-1-4577-0714-8