Title :
Disturbance attenuation for constrained discrete-time systems via receding horizon controls
Author_Institution :
INRIA-ENS, Paris, France
fDate :
5/1/2004 12:00:00 AM
Abstract :
In this note, we propose new receding horizon H∞ control (RHHC) schemes for linear input-constrained discrete time-invariant systems with disturbances. The proposed control schemes are based on the dynamic game problem of a finite-horizon cost function with a fixed finite terminal weighting matrix and a one-horizon cost function with time-varying finite terminal weighting matrices, respectively. We show that the resulting RHHCs guarantee closed-loop stability in the absence of disturbances and H∞ norm bound for 2-norm bounded disturbances. We also show that the proposed schemes can easily be implemented via linear matrix inequality optimization. We illustrate the effectiveness of the proposed schemes through simulations.
Keywords :
H∞ control; closed loop systems; discrete systems; game theory; linear matrix inequalities; optimisation; stability; 2-norm bounded disturbances; H∞ control; closed-loop stability; constrained discrete-time systems; disturbance attenuation; dynamic game problems; finite-horizon cost function; linear input-constrained discrete time-invariant systems; linear matrix inequality; one-horizon cost function; optimisation; receding horizon controls; time-varying finite terminal weighting matrices; Attenuation; Control systems; Cost function; Linear matrix inequalities; Sampling methods; Stability; Time varying systems; Transfer functions; $H_infty$ norm; Constrained System; RHC; disturbance; receding horizon control; stability;
Journal_Title :
Automatic Control, IEEE Transactions on
DOI :
10.1109/TAC.2004.828306