A Machine Learning Based Method to Efficiently Analyze the Cogging Torque Under Manufacturing Tolerances

Reales, Andrea; Jara, Werner; Hermosilla, Gabriel; Madariaga, Carlos; Tapia, Juan; Bramerdorfer, Gerd; IEEE

Abstract

This paper addresses a new technique based on machine learning which reduces the number of evaluations required to perform robustness analysis of permanent magnet synchronous machines. This methodology is based on the logical behavior of possible faulty magnet combinations produced by manufacturing tolerances. Groups of faulty combinations with a similar structure and cogging output are identified by means of a fuzzy-logic algorithm. Subsequently, only a single faulty combination of each group needs to be evaluated through the finite element method, which severely decreases the computational burden of the tolerance analysis. A 6-slot 4-pole and a 9-slot 6-pole machine were subject to tolerance analysis considering the displacement of the magnets. Both machines were evaluated through the proposed method and the results were validated by means of the finite element method (FEM).

Más información

Título según WOS: A Machine Learning Based Method to Efficiently Analyze the Cogging Torque Under Manufacturing Tolerances
Título de la Revista: 2018 IEEE ENERGY CONVERSION CONGRESS AND EXPOSITION (ECCE)
Editorial: IEEE
Fecha de publicación: 2021
Página de inicio: 1353
Página final: 1357
DOI:

10.1109/ECCE47101.2021.9595571

Notas: ISI