This article proposes a new hybrid analytical and numerical finite element (FE) based method for calculating ac eddy current losses in wire windings and demonstrates its applicability for axial flux permanent magnet electric machines. The method takes into account three-dimensional (3-D) field effects in order to achieve accurate results and yet greatly reduce computational efforts. The new 3-D FE-based method is advantageous as it employs minimum simplifications and considers the end turns in the eddy current path, the magnetic flux density variation along the effective length of coils, and the field fringing and leakage, which ultimately increases the accuracy of simulations. This study is one of the first ones to compare meticulous 3-D f...
This paper presents a novel analytical technique for predicting 3-dimensional (3D) magnet eddy curre...
International audienceThe selection of the optimal winding geometry in order to improve the efficien...
The rotor and magnet loss in single-sided axial ux permanent magnet (AFPM) machines with non-overlap...
This article proposes a new hybrid analytical and numerical finite element (FE) based method for cal...
This paper proposes a new hybrid analytical and numerical FE-based method for calculating ac eddy cu...
In this study different methods of estimating the additional ac winding loss due to eddy currents at...
Axial flux permanent magnet (AFPM) machines have recently attracted significant attention due to sev...
In this paper, a fast finite element (FE)-based method for the calculation of eddy current losses in...
International audienceThis paper describes a 3-D numerical hybrid method (NHM) of the permanent-magn...
The proposed hybrid method combines computationally efficient finite-element analysis (CE-FEA) with ...
A fast finite element (FE) based method for the calculation of eddy current losses in the stator win...
This paper proposes an analytical method, based on the generalized image theory, for accurate predic...
This paper proposes a computationally efficient method, for accurate prediction of 3-dimensional (3D...
This paper proposes a computationally efficient method based on imaging technique, for accurate pred...
This study proposes a computationally efficient analytical method, for accurate prediction of three-...
This paper presents a novel analytical technique for predicting 3-dimensional (3D) magnet eddy curre...
International audienceThe selection of the optimal winding geometry in order to improve the efficien...
The rotor and magnet loss in single-sided axial ux permanent magnet (AFPM) machines with non-overlap...
This article proposes a new hybrid analytical and numerical finite element (FE) based method for cal...
This paper proposes a new hybrid analytical and numerical FE-based method for calculating ac eddy cu...
In this study different methods of estimating the additional ac winding loss due to eddy currents at...
Axial flux permanent magnet (AFPM) machines have recently attracted significant attention due to sev...
In this paper, a fast finite element (FE)-based method for the calculation of eddy current losses in...
International audienceThis paper describes a 3-D numerical hybrid method (NHM) of the permanent-magn...
The proposed hybrid method combines computationally efficient finite-element analysis (CE-FEA) with ...
A fast finite element (FE) based method for the calculation of eddy current losses in the stator win...
This paper proposes an analytical method, based on the generalized image theory, for accurate predic...
This paper proposes a computationally efficient method, for accurate prediction of 3-dimensional (3D...
This paper proposes a computationally efficient method based on imaging technique, for accurate pred...
This study proposes a computationally efficient analytical method, for accurate prediction of three-...
This paper presents a novel analytical technique for predicting 3-dimensional (3D) magnet eddy curre...
International audienceThe selection of the optimal winding geometry in order to improve the efficien...
The rotor and magnet loss in single-sided axial ux permanent magnet (AFPM) machines with non-overlap...