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Completion In EV/HEV TECHNOLOGY(S-CET-6881)

  • Last updated Oct, 2026
  • Certified Course

Course Includes

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

What you'll learn

Course Description

EV/HEV TECHNOLOGY is a comprehensive course designed to provide practical knowledge of Electric Vehicles (EVs) and Hybrid Electric Vehicles (HEVs). The course covers vehicle architectures, electric motors, batteries, Battery Management Systems, power electronics, internal combustion engines used in hybrid vehicles, regenerative braking, energy management, charging systems, thermal management, vehicle dynamics, control systems, simulation, diagnostics, and safety.

Learners will understand how electrical and mechanical systems work together in modern electrified vehicles. The course also introduces different EV and HEV architectures, powertrain integration, battery and motor selection, energy flow, regenerative braking, hybrid energy-management strategies, and practical vehicle-system analysis.

What You Will Learn

  • Fundamentals of EV and HEV technology
  • BEV, HEV, PHEV and mild-hybrid concepts
  • Series, parallel and series-parallel hybrid architectures
  • EV and HEV powertrain components
  • PMSM, BLDC, induction and other EV motors
  • Electric motor torque, speed and efficiency
  • Internal combustion engine integration in HEVs
  • Lithium-ion EV batteries
  • Battery modules and battery packs
  • Battery Management Systems
  • SOC and SOH concepts
  • Cell balancing and battery protection
  • DC-DC converters and inverters
  • Motor controllers
  • Vehicle Control Unit
  • CAN communication concepts
  • Regenerative braking
  • EV and PHEV charging systems
  • Battery, motor and engine thermal management
  • Vehicle dynamics and performance calculations
  • EV energy consumption and HEV fuel economy
  • Energy management strategies
  • EV/HEV modeling and simulation
  • Automotive diagnostics
  • EV/HEV safety and high-voltage systems

Who Can Join?

  • Mechanical Engineering students
  • Automobile Engineering students
  • Electrical Engineering students
  • Electronics Engineering students
  • Mechatronics students
  • EV Technology students
  • Diploma students
  • Automotive engineering students
  • Vehicle design students
  • EV/HEV professionals
  • Automotive engineers
  • Battery technology learners
  • Powertrain professionals
  • Automotive technicians
  • Engineering graduates interested in electric mobility

Prerequisite

  • Basic computer knowledge
  • Basic mathematics
  • Basic electrical and mechanical concepts
  • Understanding of voltage, current and power is helpful
  • Basic automobile engineering knowledge is beneficial
  • Basic knowledge of electric motors is helpful
  • Battery fundamentals are beneficial
  • Basic control-system knowledge is an advantage
  • No previous EV/HEV experience is required

Course Outcome

After completing the course, learners will be able to:

  • Understand EV and HEV architectures
  • Differentiate between BEV, HEV and PHEV systems
  • Understand series, parallel and series-parallel hybrid systems
  • Identify major EV/HEV powertrain components
  • Understand different electric motor technologies
  • Analyze basic motor torque and power requirements
  • Understand ICE and electric motor integration in HEVs
  • Understand EV battery and BMS systems
  • Understand power electronics and motor controllers
  • Analyze regenerative braking systems
  • Understand EV and PHEV charging systems
  • Understand hybrid energy-management strategies
  • Analyze basic vehicle performance requirements
  • Understand EV/HEV thermal-management systems
  • Understand CAN-based automotive communication
  • Understand basic automotive diagnostics
  • Perform basic EV/HEV energy and efficiency calculations
  • Develop conceptual EV/HEV system models
  • Analyze driving-cycle and energy-consumption data
  • Develop practical EV/HEV technology projects

Career & Learning Opportunities

  • EV/HEV Engineer Trainee
  • EV Technology Engineer Trainee
  • EV Systems Engineer Trainee
  • Hybrid Vehicle Engineer Trainee
  • EV Powertrain Engineer Trainee
  • Automotive Design Engineer Trainee
  • EV Battery Engineer Trainee
  • BMS Engineer Trainee
  • Electric Motor Engineer Trainee
  • EV Controls Engineer Trainee
  • Automotive Simulation Engineer Trainee
  • EV Testing Engineer Trainee
  • EV Validation Engineer Trainee
  • Automotive Diagnostics Technician
  • EV Service Technician
  • EV Product Design Assistant
  • Automotive Engineering Assistant
  • EV Engineering Project Assistant

Practical Project Focus

The course emphasizes practical learning through EV/HEV powertrain analysis, battery sizing, motor selection, motor-battery matching, hybrid architecture analysis, regenerative braking, energy-management strategies, vehicle performance calculations, EV/HEV simulation, and automotive diagnostic projects.

EV and HEV systems involve high-voltage electrical, mechanical, thermal, and safety risks. Actual vehicle systems should be designed, serviced, tested, and validated according to applicable automotive standards, manufacturer procedures, safety requirements, and qualified engineering practices.

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Course Syllabus

Module 1: Introduction to EV and HEV Technology

  • Evolution of electric mobility
  • Fundamentals of electric vehicles
  • Fundamentals of hybrid electric vehicles
  • EV vs HEV concepts
  • Advantages and limitations
  • Major vehicle components
  • Energy flow in EVs and HEVs
  • Automotive electrification trends

Module 2: Types of Electrified Vehicles

  • Battery Electric Vehicles (BEV)
  • Hybrid Electric Vehicles (HEV)
  • Plug-in Hybrid Electric Vehicles (PHEV)
  • Mild hybrid vehicles
  • Full hybrid vehicles
  • Series hybrid architecture
  • Parallel hybrid architecture
  • Series-parallel hybrid architecture
  • Fuel-cell electric vehicle overview

Module 3: EV and HEV Powertrain Architecture

  • Vehicle powertrain fundamentals
  • Electric powertrain components
  • Hybrid powertrain components
  • Motor-generator systems
  • Internal combustion engine integration
  • Transmission systems
  • Energy flow and power flow
  • Powertrain architecture comparison

Module 4: Electric Motors for EV/HEV

  • Electric motor fundamentals
  • PMSM motors
  • BLDC motors
  • Induction motors
  • Switched Reluctance Motors
  • Motor torque and speed
  • Motor efficiency
  • Motor selection for EV/HEV applications

Module 5: Internal Combustion Engine in HEVs

  • ICE fundamentals
  • Engine operating characteristics
  • Engine and electric motor integration
  • Engine start-stop systems
  • Engine efficiency
  • Engine operating regions
  • Hybrid engine control
  • Engine downsizing concepts

Module 6: EV/HEV Batteries

  • Battery fundamentals
  • Lithium-ion batteries
  • Battery cell types
  • Battery modules and packs
  • Battery capacity and energy
  • Battery voltage
  • Battery State of Charge
  • Battery State of Health
  • Battery pack architecture

Module 7: Battery Management System

  • BMS fundamentals
  • Cell voltage monitoring
  • Current monitoring
  • Temperature monitoring
  • SOC estimation
  • SOH estimation
  • Cell balancing
  • Battery protection
  • BMS communication

Module 8: Power Electronics

  • Role of power electronics
  • DC-DC converters
  • DC-AC inverters
  • Motor controllers
  • Switching devices
  • Power conversion
  • Power electronics efficiency
  • Thermal considerations

Module 9: Vehicle Control Systems

  • Vehicle Control Unit (VCU)
  • Electronic control systems
  • Accelerator and brake inputs
  • Torque control
  • Motor control
  • Engine control
  • Battery control
  • CAN communication concepts
  • Control-system integration

Module 10: Hybrid Energy Management

  • Energy management fundamentals
  • Power split between engine and motor
  • Series hybrid control
  • Parallel hybrid control
  • Series-parallel control
  • Engine operating-point optimization
  • Battery charging strategies
  • Energy management strategies
  • Regenerative braking coordination

Module 11: Regenerative Braking

  • Regenerative braking fundamentals
  • Electric motor as generator
  • Energy recovery
  • Braking torque
  • Brake blending
  • Battery charging during braking
  • Regeneration limits
  • Regenerative braking efficiency
  • Control strategies

Module 12: EV/HEV Charging Systems

  • EV charging fundamentals
  • AC charging
  • DC fast charging
  • Charging levels and power
  • Charging connectors overview
  • Charging communication concepts
  • Battery charging profiles
  • Plug-in hybrid charging
  • Charging safety

Module 13: Thermal Management

  • EV/HEV thermal systems
  • Battery thermal management
  • Motor cooling
  • Inverter cooling
  • Engine cooling in HEVs
  • Air cooling
  • Liquid cooling
  • Thermal monitoring
  • Thermal safety

Module 14: Vehicle Dynamics and Performance

  • Vehicle longitudinal dynamics
  • Rolling resistance
  • Aerodynamic drag
  • Grade resistance
  • Acceleration requirements
  • Tractive force
  • Wheel torque
  • Vehicle power requirements
  • Range and fuel economy calculations

Module 15: EV/HEV Efficiency and Energy Consumption

  • EV energy consumption
  • HEV fuel consumption
  • Motor efficiency
  • Engine efficiency
  • Inverter efficiency
  • Transmission losses
  • Energy recovery
  • Driving-cycle analysis
  • Efficiency optimization

Module 16: EV/HEV Simulation and Modeling

  • Vehicle system modeling
  • Battery modeling
  • Motor modeling
  • Engine modeling
  • Powertrain modeling
  • Energy management models
  • Driving-cycle simulation
  • Range and fuel-consumption simulation
  • Simulation result analysis

Module 17: Automotive Communication and Diagnostics

  • Automotive communication fundamentals
  • CAN bus
  • ECU communication
  • BMS communication
  • Motor-controller communication
  • Diagnostic systems
  • Fault codes
  • Vehicle monitoring
  • Troubleshooting concepts

Module 18: EV/HEV Safety and Standards

  • High-voltage safety
  • Electrical isolation
  • Battery safety
  • Thermal runaway
  • Crash safety considerations
  • High-voltage interlock
  • Emergency shutdown
  • Workshop safety
  • Automotive standards overview

Module 19: Practical EV/HEV Projects

  • EV powertrain analysis project
  • HEV architecture study
  • Battery sizing project
  • Electric motor selection
  • Motor-battery matching
  • Regenerative braking analysis
  • Energy management project
  • Vehicle performance calculation
  • EV/HEV simulation project
  • Automotive diagnostics project

Module 20: Final EV/HEV Technology Project & Assessment

  • EV/HEV system requirement analysis
  • Vehicle architecture selection
  • Powertrain component selection
  • Battery and motor integration
  • Engine and motor coordination
  • Energy management strategy
  • Regenerative braking strategy
  • Thermal-management concept
  • Vehicle simulation
  • Safety and diagnostic planning
  • Final project documentation
  • Project presentation and assessment


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