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Completion In EV MOTOR DESIGN WITH CAD/CAE(S-CEMDWC-5154)

  • Last updated Oct, 2026
  • Certified Course

Course Includes

  • Duration1 Month
  • Enrolled0
  • Lectures25
  • Videos0
  • Notes0
  • CertificateYes

What you'll learn

EV MOTOR DESIGN WITH CAD/CAE is a practical and industry-oriented course focused on the design, modeling, simulation, analysis, and optimization of electric motors used in electric vehicles. The course combines CAD-based mechanical design with CAE-based electromagnetic, thermal, structural, and performance analysis.

Learners will study EV motor technologies such as PMSM, BLDC, induction, and switched reluctance motors. They will learn how to define motor requirements, develop stator and rotor designs, create detailed CAD models, assign engineering materials, perform CAE simulations, evaluate motor performance, analyze thermal and structural behavior, and optimize designs for efficiency, power, weight, and reliability.

What You Will Learn

  • Fundamentals of EV motor technology
  • EV motor design requirements
  • PMSM, BLDC, induction and SRM motors
  • Radial-flux and axial-flux motor concepts
  • Motor torque, power and efficiency
  • Motor electromagnetic design
  • Stator and winding design
  • Rotor and permanent magnet design
  • Air-gap and magnetic circuit concepts
  • Motor material selection
  • 2D and 3D motor CAD modeling
  • Stator, rotor, shaft and housing design
  • Motor assembly development
  • Motor thermal management
  • Cooling system concepts
  • CAE simulation workflow
  • Electromagnetic analysis
  • Flux and magnetic field analysis
  • Back EMF and torque analysis
  • Cogging torque analysis
  • Electromagnetic loss analysis
  • Thermal CAE analysis
  • Structural and vibration analysis
  • Motor optimization
  • Motor testing and validation
  • Simulation-to-test correlation

Who Can Join?

  • Mechanical Engineering students
  • Automobile Engineering students
  • Electrical Engineering students
  • Electronics Engineering students
  • Mechatronics students
  • EV Technology students
  • Diploma students
  • Automotive design students
  • CAD/CAE students
  • Electric motor design learners
  • Automotive engineers
  • Product design engineers
  • CAE engineers
  • EV powertrain professionals
  • Engineering graduates interested in EV motor technology

Prerequisite

  • Basic computer knowledge
  • Basic mathematics and engineering concepts
  • Basic mechanical engineering knowledge
  • Basic electrical and electromagnetic concepts
  • Understanding of electric motors is beneficial
  • Engineering drawing knowledge is helpful
  • Basic CAD knowledge is recommended
  • Basic CAE/simulation knowledge is helpful but not mandatory
  • No previous EV motor design experience is required

Course Outcome

After completing the course, learners will be able to:

  • Understand major electric motor technologies used in EVs
  • Define motor performance requirements
  • Compare PMSM, BLDC, induction and SRM technologies
  • Understand electromagnetic motor design principles
  • Develop basic stator and winding designs
  • Develop rotor and permanent magnet configurations
  • Select appropriate motor materials
  • Create 2D and 3D motor CAD models
  • Develop motor components and assemblies
  • Understand motor thermal-management requirements
  • Perform basic electromagnetic CAE analysis
  • Analyze flux distribution and electromagnetic torque
  • Evaluate back EMF and motor losses
  • Perform basic thermal simulations
  • Perform structural and vibration analysis
  • Identify motor design problems through simulation
  • Optimize motor geometry and performance
  • Understand motor testing and validation
  • Correlate simulation results with test data
  • Develop a complete conceptual EV motor CAD/CAE project

Career & Learning Opportunities

  • EV Motor Design Engineer Trainee
  • Electric Motor Design Engineer Trainee
  • EV Motor CAD Designer
  • EV Motor CAE Engineer Trainee
  • Electric Motor Design Assistant
  • Automotive Design Engineer Trainee
  • EV Powertrain Design Engineer Trainee
  • Electromagnetic Simulation Engineer Trainee
  • CAE Design Engineer Trainee
  • Thermal CAE Engineer Trainee
  • Structural CAE Engineer Trainee
  • EV Systems Engineer Trainee
  • Automotive CAD Engineer Trainee
  • Product Design Engineer Trainee
  • Electric Machine Design Assistant
  • EV Component Design Assistant
  • Motor Testing Engineer Trainee
  • EV Engineering Project Assistant

Practical Project Focus

The course emphasizes hands-on development of an EV electric motor, including motor type selection, performance specification, stator and rotor design, CAD modeling, winding configuration, material selection, electromagnetic simulation, thermal analysis, structural analysis, vibration analysis, optimization, and final design documentation.

Actual EV motor designs require detailed electromagnetic, thermal, mechanical, manufacturing, safety, and validation engineering. Production-ready designs should be reviewed and validated by qualified engineers and according to applicable automotive standards and manufacturer requirements.

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Course Syllabus

Module 1: Introduction to EV Motor Design

  • Fundamentals of electric vehicle motors
  • Role of electric motors in EVs
  • EV motor requirements
  • Motor design workflow
  • Motor performance parameters
  • Torque and power requirements
  • Motor efficiency
  • CAD/CAE in motor development

Module 2: Electric Motor Fundamentals

  • Basic principles of electric motors
  • Electromagnetic fundamentals
  • Torque generation
  • Magnetic fields
  • Voltage, current and power
  • Motor speed and torque
  • Motor efficiency
  • Motor operating regions

Module 3: Types of EV Motors

  • Permanent Magnet Synchronous Motors (PMSM)
  • Brushless DC Motors (BLDC)
  • Induction Motors
  • Switched Reluctance Motors
  • Axial flux motors
  • Radial flux motors
  • Motor comparison
  • EV motor selection criteria

Module 4: EV Motor Specifications

  • Rated power
  • Peak power
  • Rated torque
  • Peak torque
  • Base speed
  • Maximum speed
  • Efficiency requirements
  • Voltage and current requirements
  • Duty cycle considerations

Module 5: Motor Electromagnetic Design

  • Electromagnetic design fundamentals
  • Magnetic circuit concepts
  • Stator design
  • Rotor design
  • Air-gap design
  • Winding concepts
  • Permanent magnet selection
  • Electromagnetic torque generation

Module 6: Stator and Winding Design

  • Stator construction
  • Stator core design
  • Slot geometry
  • Winding arrangements
  • Number of turns
  • Wire selection
  • Winding factor
  • Copper losses
  • Winding temperature considerations

Module 7: Rotor Design

  • Rotor construction
  • Rotor geometry
  • Permanent magnet rotor
  • Interior and surface-mounted magnets
  • Rotor shaft design
  • Rotor mechanical integrity
  • Magnet placement
  • Rotor balancing concepts

Module 8: Motor CAD Modeling

  • CAD environment for motor design
  • 2D motor geometry
  • 3D motor modeling
  • Stator modeling
  • Rotor modeling
  • Shaft and housing design
  • Assembly modeling
  • Component relationships
  • Design documentation

Module 9: Motor Materials and Manufacturing

  • Electrical steel
  • Permanent magnet materials
  • Copper conductors
  • Rotor and shaft materials
  • Housing materials
  • Material properties
  • Manufacturing considerations
  • Tolerance and fit concepts

Module 10: Thermal Design and Cooling

  • Motor heat generation
  • Copper losses
  • Iron losses
  • Mechanical losses
  • Thermal resistance
  • Motor temperature distribution
  • Air cooling
  • Liquid cooling
  • Cooling jacket concepts
  • Thermal management

Module 11: Mechanical Design and Structural Analysis

  • Motor housing design
  • Shaft design
  • Bearing arrangement
  • Rotor mechanical stresses
  • Structural loading
  • Vibration considerations
  • Modal analysis concepts
  • Mechanical integrity

Module 12: CAE Simulation Fundamentals

  • Introduction to CAE
  • Simulation workflow
  • Model preparation
  • Meshing concepts
  • Boundary conditions
  • Material assignment
  • Solver setup
  • Result interpretation
  • Simulation validation

Module 13: Electromagnetic Simulation

  • Electromagnetic simulation fundamentals
  • Magnetic field analysis
  • Flux distribution
  • Back EMF
  • Torque calculation
  • Cogging torque
  • Electromagnetic losses
  • Efficiency analysis
  • Motor performance mapping

Module 14: Thermal CAE Analysis

  • Thermal simulation fundamentals
  • Heat source definition
  • Thermal boundary conditions
  • Temperature distribution
  • Steady-state thermal analysis
  • Transient thermal concepts
  • Cooling-system analysis
  • Thermal performance evaluation

Module 15: Structural and Vibration CAE

  • Structural analysis of motor components
  • Static structural analysis
  • Stress and deformation
  • Rotor stress analysis
  • Shaft analysis
  • Bearing load concepts
  • Modal analysis
  • Natural frequency
  • Vibration analysis

Module 16: Motor Optimization

  • Motor design optimization
  • Torque improvement
  • Efficiency optimization
  • Weight reduction
  • Material optimization
  • Thermal optimization
  • Geometric parameter optimization
  • Design trade-offs
  • Performance comparison

Module 17: Motor Control and Performance

  • Motor controller fundamentals
  • Speed control
  • Torque control
  • Field-oriented control overview
  • Motor operating regions
  • Constant torque region
  • Constant power region
  • Regenerative operation
  • Motor-control integration

Module 18: Motor Testing and Validation

  • Motor prototype testing
  • Torque testing
  • Speed testing
  • Efficiency testing
  • Back EMF testing
  • Temperature testing
  • Vibration testing
  • Noise considerations
  • Simulation-to-test correlation

Module 19: Practical EV Motor Design Projects

  • PMSM motor design project
  • BLDC motor design project
  • Stator and rotor CAD modeling
  • Electromagnetic simulation
  • Thermal analysis
  • Structural analysis
  • Motor efficiency evaluation
  • Design optimization
  • CAD/CAE project documentation

Module 20: Final EV Motor Design Project & Assessment

  • EV motor requirements analysis
  • Motor type selection
  • Performance specification
  • Electromagnetic design
  • Stator and rotor modeling
  • CAD assembly
  • Electromagnetic CAE simulation
  • Thermal analysis
  • Structural and vibration analysis
  • Design optimization
  • Final motor design documentation
  • Project presentation and assessment


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