Best Seller Icon Bestseller

Completion In EV POWER TRAIN DESIGN(S-CEPTD-2850)

  • Last updated Oct, 2026
  • Certified Course

Course Includes

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

What you'll learn

EV POWER TRAIN DESIGN is a practical course focused on the design, analysis, simulation, and integration of electric vehicle powertrain systems. The course covers electric motors, power electronics, battery integration, transmissions, vehicle performance calculations, regenerative braking, thermal management, vehicle control systems, and powertrain simulation.

Learners will understand how electrical energy from the battery is converted into mechanical power to drive an electric vehicle. The course also covers motor selection, torque and power calculations, gear-ratio selection, inverter and motor-controller concepts, energy consumption, regenerative braking, vehicle dynamics, system-level modeling, and practical powertrain design workflows.

What You Will Learn

  • Fundamentals of electric vehicle powertrains
  • EV powertrain architectures
  • BEV, HEV and PHEV concepts
  • PMSM, BLDC, induction and SRM motors
  • Motor torque and speed characteristics
  • Motor power and efficiency analysis
  • Vehicle tractive force calculations
  • Acceleration and gradeability calculations
  • Aerodynamic and rolling resistance
  • EV motor and battery matching
  • Gearbox and reduction-ratio selection
  • Differential and final-drive concepts
  • EV inverters and motor controllers
  • DC-DC converter concepts
  • Vehicle Control Unit (VCU)
  • CAN communication concepts
  • Regenerative braking
  • EV thermal management
  • Powertrain efficiency and energy consumption
  • Driving-cycle analysis
  • Powertrain modeling and simulation
  • EV powertrain mechanical packaging
  • High-voltage electrical architecture
  • Powertrain testing and validation

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
  • Electric vehicle professionals
  • Automotive engineers
  • Powertrain engineers
  • Vehicle design professionals
  • CAD designers
  • Product design engineers
  • EV system engineers
  • Engineering graduates interested in electric mobility

Prerequisite

  • Basic computer knowledge
  • Basic mathematics and engineering concepts
  • Basic electrical and mechanical knowledge
  • Understanding of voltage, current and power is helpful
  • Basic knowledge of electric motors is beneficial
  • Vehicle dynamics knowledge is helpful
  • CAD knowledge is beneficial for mechanical packaging
  • Basic programming/simulation knowledge is an advantage
  • No previous EV powertrain design experience is required

Course Outcome

After completing the course, learners will be able to:

  • Understand EV powertrain architecture
  • Identify and compare different EV motor technologies
  • Analyze motor torque, speed and power requirements
  • Calculate vehicle tractive force and power requirements
  • Select an appropriate motor for basic EV applications
  • Match the motor with battery and inverter requirements
  • Calculate suitable transmission and gear ratios
  • Understand inverter and motor-controller operation
  • Understand VCU and EV control architecture
  • Analyze regenerative braking concepts
  • Evaluate powertrain efficiency and energy consumption
  • Understand EV thermal-management requirements
  • Analyze vehicle driving cycles
  • Develop basic EV powertrain models
  • Perform system-level powertrain simulations
  • Understand high-voltage powertrain architecture
  • Develop conceptual EV powertrain designs
  • Prepare powertrain design and validation documentation

Career & Learning Opportunities

  • EV Powertrain Design Engineer Trainee
  • EV Powertrain Engineer Trainee
  • Electric Vehicle Design Engineer Trainee
  • EV Systems Engineer Trainee
  • Electric Motor Design Assistant
  • EV Motor Selection Engineer Trainee
  • Powertrain Development Engineer Trainee
  • EV Performance Engineer Trainee
  • Automotive Design Engineer Trainee
  • EV Simulation Engineer Trainee
  • Vehicle Dynamics Engineer Trainee
  • EV Controls Engineer Trainee
  • Power Electronics Engineer Trainee
  • EV Testing Engineer Trainee
  • EV Validation Engineer Trainee
  • Automotive CAD Designer
  • EV Product Design Assistant
  • EV Engineering Project Assistant

Practical Project Focus

The course emphasizes practical EV powertrain development through motor selection, vehicle performance calculations, battery-motor matching, gear-ratio calculation, inverter/controller integration, regenerative braking analysis, thermal-management concepts, driving-cycle simulation, powertrain CAD packaging, and complete conceptual EV powertrain projects.

Actual EV powertrain systems involve high-voltage electrical, mechanical, thermal, and safety risks. Production vehicle designs should be engineered, tested, validated, and approved according to applicable automotive standards, manufacturer specifications, safety requirements, and qualified engineering practices.

Show More

Course Syllabus

Module 1: Introduction to EV Powertrain

  • Fundamentals of electric vehicles
  • EV powertrain architecture
  • Major powertrain components
  • Energy flow in an EV
  • Electric vs conventional powertrains
  • BEV, HEV and PHEV concepts
  • Powertrain design workflow
  • EV performance requirements

Module 2: EV Powertrain Architecture

  • Front-wheel-drive powertrain
  • Rear-wheel-drive powertrain
  • All-wheel-drive systems
  • Central motor architecture
  • In-wheel motor concepts
  • Single-motor and dual-motor systems
  • Mechanical and electrical power flow
  • Powertrain component integration

Module 3: Electric Motors for EVs

  • Fundamentals of electric motors
  • Motor types used in EVs
  • Permanent Magnet Synchronous Motor (PMSM)
  • BLDC motors
  • Induction motors
  • Switched Reluctance Motors (SRM)
  • Motor torque and speed characteristics
  • Motor selection criteria

Module 4: Motor Performance Analysis

  • Torque and power
  • Motor speed range
  • Torque-speed curves
  • Peak and continuous power
  • Motor efficiency
  • Operating regions
  • Base speed and maximum speed
  • Motor performance mapping

Module 5: EV Power and Performance Calculations

  • Vehicle mass and load
  • Rolling resistance
  • Aerodynamic drag
  • Grade resistance
  • Acceleration requirements
  • Tractive force calculation
  • Wheel torque calculation
  • Vehicle power requirement
  • Performance estimation

Module 6: Transmission and Gearbox Design

  • EV transmission fundamentals
  • Single-speed transmission
  • Multi-speed transmission concepts
  • Gear ratio selection
  • Reduction gear systems
  • Torque multiplication
  • Gearbox efficiency
  • Differential and final-drive concepts
  • Transmission integration

Module 7: Battery and Powertrain Integration

  • EV battery fundamentals
  • Battery voltage and capacity
  • Battery power requirements
  • Battery-to-motor power flow
  • Peak current requirements
  • Energy consumption
  • Battery and motor matching
  • Powertrain operating limits

Module 8: Power Electronics

  • Power electronics in EVs
  • DC-DC converters
  • DC-AC inverters
  • Motor controllers
  • Switching devices
  • MOSFET and IGBT concepts
  • Power conversion efficiency
  • Power electronics thermal considerations

Module 9: Motor Controller and Inverter

  • Motor controller architecture
  • Inverter operation
  • Three-phase motor control
  • PWM fundamentals
  • Torque control
  • Speed control
  • Regenerative braking control
  • Controller protection
  • Controller-motor matching

Module 10: Vehicle Control Systems

  • EV control architecture
  • Vehicle Control Unit (VCU)
  • Accelerator pedal input
  • Brake pedal input
  • Torque command generation
  • Motor control coordination
  • Battery and powertrain communication
  • CAN communication concepts
  • Control strategies

Module 11: Regenerative Braking

  • Fundamentals of regenerative braking
  • Energy recovery
  • Motor as generator
  • Regenerative braking torque
  • Brake blending concepts
  • Battery charging during regeneration
  • Regeneration limits
  • Efficiency improvement
  • Regenerative braking control

Module 12: EV Thermal Management

  • Powertrain heat generation
  • Motor thermal management
  • Inverter cooling
  • Battery and powertrain interaction
  • Air cooling
  • Liquid cooling
  • Cooling circuits
  • Temperature monitoring
  • Thermal performance considerations

Module 13: Powertrain Efficiency and Energy Management

  • EV energy consumption
  • Motor efficiency
  • Inverter efficiency
  • Transmission efficiency
  • Overall powertrain efficiency
  • Driving-cycle analysis
  • Energy losses
  • Range optimization
  • Energy management strategies

Module 14: EV Drive Cycles and Simulation

  • Standard driving-cycle concepts
  • Speed-time profiles
  • WLTP concept
  • Urban and highway driving conditions
  • Vehicle performance simulation
  • Energy consumption simulation
  • Motor operating-point analysis
  • Range estimation
  • Simulation result interpretation

Module 15: Powertrain Modeling and Simulation

  • Powertrain modeling fundamentals
  • Vehicle longitudinal dynamics
  • Motor models
  • Battery models
  • Inverter and controller models
  • Transmission models
  • System-level simulation
  • Parameter selection
  • Model validation

Module 16: EV Powertrain Mechanical Design

  • Motor mounting concepts
  • Gearbox integration
  • Drive shaft and axle concepts
  • Differential integration
  • Powertrain packaging
  • Mechanical load considerations
  • Vibration considerations
  • Component alignment
  • CAD-based powertrain design

Module 17: EV Powertrain Electrical Design

  • High-voltage architecture
  • HV cables and connectors
  • Contactors and fuses
  • Pre-charge circuit
  • Isolation monitoring concepts
  • Low-voltage control systems
  • CAN-based communication
  • Electrical protection
  • High-voltage safety

Module 18: Powertrain Testing and Validation

  • Motor testing
  • Power and torque testing
  • Efficiency testing
  • Inverter testing
  • Vehicle performance testing
  • Thermal testing
  • Regenerative braking testing
  • Driving-cycle validation
  • Test data analysis

Module 19: Practical EV Powertrain Design Projects

  • EV motor selection project
  • Motor and battery matching
  • Gear ratio calculation
  • Vehicle performance calculation
  • Powertrain efficiency analysis
  • Regenerative braking analysis
  • EV powertrain simulation
  • Motor-controller integration project
  • Powertrain CAD packaging project

Module 20: Final EV Powertrain Design Project & Assessment

  • EV requirements analysis
  • Vehicle performance targets
  • Motor selection
  • Battery and motor matching
  • Gear ratio selection
  • Inverter/controller selection
  • Powertrain thermal-management concept
  • Vehicle control strategy
  • System-level simulation
  • Powertrain packaging
  • Final project documentation
  • Project presentation and assessment


Review

0.0
Course Rating (0 reviews)
0%
0%
0%
0%
0%



Call
Text Message
Review
Email
CHAT