
doi: 10.1002/asjc.387
handle: 11311/629190
AbstractThis paper presents an extension of the Virtual Reference Feedback Tuning (VRFT) methodology dedicated to linear time‐delay systems with known delay and unknown dynamics. The standard VRFT is not well suited for systems with dominant time‐delay as it yields high order controllers. The proposed direct approach, relying on a Smith Predictor structure, guarantees the same level of performance as the standard VRFT but with lower order controllers. The joint direct data‐driven design of the controller and the predictor is facilitated by the introduction of an ad‐hoc optimization initialization. Effectiveness and robustness to uncertainty in the time‐delay estimation are shown in a vehicle dynamics control problem.Copyright © 2011 John Wiley and Sons Asia Pte Ltd and Chinese Automatic Control Society
direct control, Linear systems in control theory, VRFT, Direct control; VRFT; Smith Predictor; nonlinear optimization, Smith predictor, Feedback control, nonlinear optimization
direct control, Linear systems in control theory, VRFT, Direct control; VRFT; Smith Predictor; nonlinear optimization, Smith predictor, Feedback control, nonlinear optimization
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