Title
Flatness-based deadbeat control revisited: Robust and high-performance design for electrical drives
Abstract
The present contribution introduces an extension of deadbeat control applied to flat nonlinear systems in order to make it more robust while not compromising its performance. Conventional deadbeat control is shown to be based on feedback linearization and highly sensitive to uncertainties. So far, the only remedies are to tune the deadbeat controller and the according disturbance estimator more slowly. It is shown that by using feedforward linearization instead, the parametric sensitivity is considerably reduced. A generalized controller, a mix between feedback and feedforward linearization, is proposed. The result is a deadbeat controller with both high dynamic performance and high robustness. The experimental results on an induction machine demonstrate very fast reference tracking, high robustness to typical parameter uncertainties and active compensation of time-varying disturbances.
Year
DOI
Venue
2013
10.1109/ACC.2013.6580100
American Control Conference
Keywords
Field
DocType
asynchronous machines,electric drives,feedback,feedforward,linearisation techniques,machine control,nonlinear control systems,performance index,robust control,sensitivity analysis,disturbance estimator,dynamic performance,electrical drives,feedback linearization,feedforward linearization,flatness-based deadbeat control,generalized controller,high-performance design,induction machine,nonlinear systems,parametric sensitivity,robust design,time-varying disturbance compensation,uncertainty sensitivity
Flatness (systems theory),Control theory,Control theory,Computer science,Feedback linearization,Control engineering,Robustness (computer science),Robust control,Linearization,Machine control,Feed forward
Conference
ISSN
ISBN
Citations 
0743-1619
978-1-4799-0177-7
2
PageRank 
References 
Authors
0.41
4
4
Name
Order
Citations
PageRank
Jean-Francois Stumper161.83
Veit Hagenmeyer221.42
Sascha Kuehl320.41
Ralph Kennel411126.94