Course level:Intermediate

Certification Course in Motor & Drive System for EVs: Design & Optimization

“The Certification Course in Motor & Drive Systems for Electric Vehicles: Design & Optimization” offers a deep dive into the design, optimization, and control of electric motors and their drive systems for electric vehicles (EVs). This course covers fundamental motor principles, power electronics, DC and AC motor drives, inverter-fed drives, and advanced control techniques, focusing on real-world EV applications. Through hands-on simulations, participants will acquire the skills needed to design, optimize, and test electric motor systems for EV powertrains.

At a glance

  • Launching Soon! Stay Tuned!
6,000.00

Course Curriculum

Welcome to the Course!

  • Sign up at ev.care to access free learning materials & QnA support!

Module 1: Fundamentals of Electric Motors
This module introduces the core principles of electric motors, including torque production, magnetic circuits, and energy conversion. Students will explore motor output characteristics, specific loadings, and the general properties of electric motors, with an emphasis on safety standards relevant to the EV industry.

Module 2: Power Electronics for Motor Drives
In this module, participants will learn about the power electronics that control motor drives. Topics include voltage control techniques, DC/AC conversion, inversion techniques, and inverter switching devices. The module also covers converter waveforms, acoustic noise control, and the cooling of power switching devices.

Module 3: Conventional DC Motors and Drives
This module covers the operating principles of conventional DC motors, including torque production and motional EMF. Participants will study the steady-state and transient performance characteristics, four-quadrant operation, regenerative braking, and various types of DC drives such as thyristor, chopper-fed, and digitally controlled drives.

Module 4: Induction Motors and Drives
Focused on induction motors, this module covers the basics of rotating magnetic fields and torque production. Students will explore stator current-speed characteristics, torque-speed curves, rotor parameters, speed control methods, and power factor control.

Module 5: Induction Motor Equivalent Circuits
Participants will study the similarity between induction motors and transformers, learning how to develop an equivalent circuit for an induction motor. This module covers properties of induction motors, performance prediction, and the impact of variable frequency conditions on motor performance.

Module 6: Inverter-Fed and Advanced Induction Motor Drives
This module delves into the torque-speed characteristics of inverter-fed induction motors. Students will explore control arrangements for inverter-fed drives, including vector (field-oriented) control and cycloconverter drives, which are critical for high-performance EV applications.

Module 7: Stepping Motors
Participants will learn the principles of stepping motor operation, including steady-state and transient performance characteristics. The module covers ideal (constant-current) drive circuits and the analysis of pull-out torque-speed curves.

Module 8: Synchronous, Brushless DC, and Switched Reluctance Drives
This module provides an overview of synchronous motors, brushless DC motors, and switched reluctance motor drives. Focus is placed on controlled-speed drives, highlighting their application in EV powertrains.

Module 9: Motor and Drive Selection
In this module, participants will learn how to select the appropriate motor and drive system for various EV applications. Topics include power range considerations, torque-speed characteristics, and general application guidelines to meet load requirements.

Module 10: Advanced Motor Technology and Control for Powertrain
This advanced module focuses on electric motor design principles specifically for EVs, covering high-performance materials and control techniques. Participants will explore electric motor testing, characterization, integration into powertrains, and noise, vibration, and harshness (NVH) analysis. Additionally, the module covers reliability and lifetime analysis of electric motors, crucial for long-term performance in EV applications.

DIY Projects:

Earn a certificate

Add this certificate to your resume to demonstrate your skills & increase your chances of getting noticed.

selected template

Hardware & Software Required

Hardware: Minimum: 8 GB RAM, Quad-Core Processor, and 50 GB of free disk space 
 
Software: 

  • ANSYS or similar simulation software for motor analysis.
  • MATLAB/Simulink for drive system modeling.
  • CAD software (optional for motor design).

DIY Projects Included

Project 1: Design, Simulation, and Testing of an Inverter-Fed Electric Motor Drive for EV Powertrain

The project will provide hands-on experience with the design and control of electric motors and their integration into electric vehicle powertrains. Students will learn how to optimize motor performance using inverter-fed drives and advanced control techniques while analyzing critical performance aspects such as efficiency, NVH, and reliability.

Course Benefits

For Professionals: 

  • Mastery of advanced electric motor and drive technologies for career growth 
  • Opportunities to lead R&D initiatives in motor design and optimization 
  • Expertise in integrating motor drives into EV powertrains 
  • Increased credibility in the automotive and power electronics industry 
  • Access to leadership roles in motor testing, validation, and systems integration 

For Freshers: 

  • Strong foundation in electric motor principles and control systems 
  • Hands-on experience with motor drive technologies and simulations 
  • Competitive advantage in securing entry-level roles in motor design and EV powertrain development 
  • Exposure to cutting-edge technologies like inverter-fed and vector control drives 
  • Opportunity to work in emerging sectors like electric vehicles and green energy 

 

Technical expertise you will gain

  • Understand and Design electric motors for various applications, including EV powertrains.
  • Control DC, Induction, and Synchronous Motors using advanced power electronics techniques.
  • Model and Simulate motor systems for performance prediction and optimization.
  • Analyze motor characteristics, including torque-speed and power factor curves. 
  • Select appropriate motors and drives based on application-specific load requirements.
  • Implement Inverter-fed drives and advanced control techniques for high-efficiency operations.
  • Test and Validate electric motors for noise, vibration, and harshness (NVH) performance.
  • Integrate motor systems into electric vehicle powertrains.
  • Apply advanced materials and design principles for next-generation electric motors.
  • Perform reliability and lifetime analysis for electric motors in various applications.

 

Who can take this course?

This course is suitable for individuals with a background in electrical or mechanical engineering. Prior knowledge of motor principles, power electronics, and basic simulation tools is recommended for successful completion.

  • Freshers
  • Professionals

Personalized Trainer Support Portal:

  • 24/7 Access to a personalized trainer support portal.
  • One-on-One Mentorship for queries and project guidance.
  • Access to diverse resources, including recorded lectures, reading materials, and practical guides.
  • Dedicated forums for content discussion, insights, and project collaboration.
  • Regular Feedback from trainers for comprehensive understanding and improvement.

At a glance

  • Launching Soon! Stay Tuned!
6,000.00

Want to receive push notifications for all major on-site activities?

eMobility Academy

FREE
VIEW