Title :
Input-output feedback linearization control of linear induction motors including the dynamic end-effects
Author :
Alonge, F. ; Cirrincione, M. ; Pucci, M. ; Sferlazza, A.
Author_Institution :
D.E.I.M. (Dept. of Energy Inf. Eng. & Math. Models), Univ. of Palermo, Palermo, Italy
Abstract :
This paper proposes the theoretical framework and the consequent application of the input-output feedback linearization (FL) control technique to linear induction motors (LIM). LIM, additionally to RIM, presents other strong non-linearities caused by the dynamic end effects, leading to a space-vector dynamic model with time-varying inductance and resistance terms and a braking force term. This paper, starting from a recently developed dynamic model of the LIM taking into consideration its end effects, defines a FL technique suited for LIMs, since it inherently considers its dynamic end effects. The proposed approach has been validated experimentally on a suitably developed test set-up. Furthermore, it has been compared, under the same closed-loop bandwidths of the flux and speed systems, with the industrial standard in terms of high performance control technique: field oriented control (FOC).
Keywords :
closed loop systems; linear induction motors; linearisation techniques; machine vector control; time-varying systems; FOC; LIM dynamic end effects; RIM; braking force; field oriented control; input-output FL control technique; input-output feedback linearization control; linear induction motor; rotating induction machine; space vector dynamic model; time-varying inductance; time-varying resistance; Dynamics; Inductance; Induction motors; Inductors; Mathematical model; Resistance; Transfer functions; Feedback linearization; Linear Induction Motor (LIM); end-effects;
Conference_Titel :
Energy Conversion Congress and Exposition (ECCE), 2014 IEEE
Conference_Location :
Pittsburgh, PA
DOI :
10.1109/ECCE.2014.6953885