[JFT128] Evaluating Drive Cycle Time Using Efficiency Maps

This document describes the method for using obtained efficiency maps to confirm the efficiency history, operating points, cluster points, and total energy, etc., for drive cycle …

• Technical Themes: Efficiency map

[JFT126] Vectorizing Signals in a Control Circuit (MUX, DEMUX)

This document describes the methods for using a signal vectorization component (MUX) and vector disassembling component (DEMUX) in a control circuit.

[JAC103] Efficiency Analysis of a Permanent Magnet Synchronous Motor

In this example, how to obtain the efficiency with a sinusoidal wave voltage drive at a rotation speed of 1,800 r/min and voltage amplitude of 40 V.

• Applications: Motor and SPM Motor
• Physical Phenomena: Magnetic Field

[JFT123] Accounting for Residual Strain

This document explains the procedure for executing magnetic field analysis and iron loss analysis that account for residual strain.

• Technical Themes: Material Modeling / Loss Analysis

[JAC211] IPM Motor Wire Joule Loss Analysis

In this example, evaluation of coil joule loss that includes eddy currents during motor rotation is introduced here.

• Applications: IPM Motor and Motor
• Physical Phenomena: Magnetic Field

[JAC275] IPM Motor Iron Loss Analysis Accounting for the Effect of Residual Strain

In this document, an analysis of an IPM motor accounting for the residual strain that occurs as a result of punching processes, and evaluates the effect on torque, magnetic flux d…

• Applications: IPM Motor and Motor
• Physical Phenomena: Magnetic Field

Reduction of Optimal Design Time for IPMSMs for Automotive Applications Using Machine Learning

Yuki Shimizu, Osaka Prefecture University

• Applications: IPM Motor and Motor
• Physical Phenomena: Magnetic Field
• Technical Themes: AI / Machine Learning and Design Exploration / Optimization

Motor Loss Calculation under PWM Switching

Jihyun Kim, General Motors

• Applications: IPM Motor and Motor
• Physical Phenomena: Magnetic Field and Material
• Technical Themes: Material Modeling / Loss Analysis

Application of SIMP-based Topology Optimization in JMAG

Sukhwa Jung, DENSO CORPORATION

• Applications: IPM Motor, Linear Solenoid / Linear Actuator, and Motor
• Physical Phenomena: Magnetic Field
• Technical Themes: Design Exploration / Optimization

Application of Topology Optimization Analysis Technology for Traction Motor of Automotive

Yukihiro Yoshinari, Hitachi Automotive Systems, Ltd.

• Applications: IPM Motor and Motor
• Physical Phenomena: Magnetic Field and Structural
• Technical Themes: Design Exploration / Optimization

Efficiency Map Generation and Simulation of Dual Three-Phase PMSM

Daniel Keller, Mercedes Benz AG

• Applications: IPM Motor and Motor
• Physical Phenomena: Circuit / Control and Magnetic Field
• Technical Themes: Efficiency map

Electromagnetic Materials Suited for Electrified Transport

Sigrid JACOBS / Jan RENS, ArcelorMittal

• Applications: Linear Motor and Motor
• Physical Phenomena: Magnetic Field
• Technical Themes: Material Modeling / Loss Analysis

Electromagnetic Field Thermal Fluid Coupled Analysis for In-Vehicle Motors 2.0

Kengo Toda, TODA RACING Co., Ltd.

• Applications: IPM Motor and Motor
• Physical Phenomena: Magnetic Field and Thermal
• Technical Themes: Multiphysics

Motor Efficiency Improvement Toward New Energy Vehicle Drive Cycle based on Multi-objective Optimization Algorithm

Xiangrui Yin, China FAW Group Co.,Ltd

• Applications: IPM Motor and Motor
• Physical Phenomena: Magnetic Field
• Technical Themes: Design Exploration / Optimization and Efficiency map

Induction Motor Noise Reduction using JMAG

AMMAR Aymen, JEUMONT Electric

• Applications: Induction Motor and Motor
• Physical Phenomena: Magnetic Field and Structural
• Technical Themes: Multiphysics

[JFT118] Distributed Processing for Parameter Optimization Calculations Using SSH

This document describes a method for running optimization calculations with a Linux remote machine by using SSH.

• Technical Themes: Design Exploration / Optimization