FEM model validation for modular axial flux switched reluctance machine design switched reluctance machine design

Author(s):  
A. Egea ◽  
G. Ugalde ◽  
J. Poza ◽  
I. Egana ◽  
I. Ruiz de Argadona ◽  
...  
Energies ◽  
2019 ◽  
Vol 12 (24) ◽  
pp. 4807 ◽  
Author(s):  
Pere Andrada ◽  
Balduí Blanqué ◽  
Eusebi Martínez ◽  
José Ignacio Perat ◽  
José Antonio Sánchez ◽  
...  

This paper investigated the influence of manufacturing and assembly defects and the quality of materials on the performance of an axial-flux switched reluctance machine (AFSRM). An AFSRM drive was designed and built for the in-wheel propulsion of an electric scooter. The motor was tested according to the standard IEC 60349-Part 1, but the obtained results were below the expected result. The causes of the discrepancy between the simulated and experimental results were analyzed. After an exhaustive study, manufacturing and assembly deficiencies and the quality of materials were identified as the main causes of the mentioned discrepancies. Static torque was used to assess the impact of the different causes in these discrepancies. Finally, some recommendations are proposed to improve the construction of this kind of machine.


Author(s):  
Racha Aydoun ◽  
Guillaume Parent ◽  
Mounaim Tounzi ◽  
Jean-Philippe Lecointe ◽  
Krzysztof Komeza

Purpose This paper aims to deal with a performance comparison of an 8/6 radial-flux switched reluctance machine (RFSRM) and an axial-flux switched reluctance machine (AFSRM), presenting equivalent active surfaces. Design/methodology/approach An axial machine was designed based on the equivalent active surfaces of a radial one. After estimating the machine inductances with a reluctance network, finite elements numerical models have been implemented for a more precise inductance determination and to estimate the electromagnetic torque for both machines. Finally, the AFSRM was thoroughly examined by analyzing the impact of some geometric parameters on its performance. Findings The comparison of the RFSRM and AFSRM at equivalent active surfaces showed that the obtained axial machine is more compact along with an improvement in the electromagnetic torque. Practical implications The equivalent AFSRM is more compact, therefore more interesting for transport and on-board applications. Originality/value The RFSRM and AFSRM performance comparison using the same active surfaces has not been done. Moreover, the AFSRM presented has a rare design with no rotor yoke and where the rotor teeth are encapsulated in a nonmagnetic structure, allowing a more compact design.


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