
Explore the core electric vehicle organs—charging port, high voltage traction battery, motor drive, electric motor, and power electronics—and map how they work together through the power flow and regenerative braking.
Learn the fundamentals of AC and DC charging, onboard and offboard converters, and how power levels and connectors enable safe, fast charging for EVs.
Explain the two-stage charging cycle—constant current and constant voltage—highlighting fast charging limits and battery longevity, then explore smart charging to align EV charging with renewables and lower costs.
Assess the pros and cons of hybrid, plug-in hybrid, battery electric, and hydrogen fuel cell vehicles, and compare with traditional ICEs and total cost of ownership.
Compare induction, permanent magnet, and synchronous reluctance motors for electric vehicles, detailing cost, weight, efficiency, and control trade-offs.
Learn how lithium ion batteries enable electric vehicles by balancing gravimetric and volumetric energy density, cycle life, and fast charging, with battery packs and a management system ensuring safety.
Explore cylindrical, prismatic, and pouch cells used in electric vehicles, phones, and laptops, detailing protection features, swelling and gassing risks, and cost and space tradeoffs.
Examine graphene-based batteries, including graphene lithium-ion hybrids and lithium-sulfur cells, where graphene enhances electrode conductivity, stability, and life, enabling low-cost, high-energy-density storage for electric vehicles.
Are you an engineer, student, or professional trying to break into the fastest-growing sector in automotive?
The Electric Vehicle industry is growing explosively and companies are desperately short of trained EV engineers. This course gives you the technical foundation to enter this field with confidence.
What makes this course different: Built by an EV Tech startup that trains professionals across India using this same curriculum. Covers every major EV subsystem in one place — battery, motor, charging, powertrain. Includes real engineering calculations for EV powertrain design. No EV background required — a mechanical or electrical engineering foundation is enough
By the end of this course, you will be able to:
• Explain the architecture of BEV, HEV, and PHEV vehicles and their key differences
• Describe the electrical power flow through EV drivetrain components
• Compare AC vs DC charging technology and explain fast and smart charging
• Perform design calculations for EV powertrain sizing
• Understand Li-ion battery chemistry (NMC, LFP, NCA) and key battery parameters
• Explain motor control strategy for BLDC and induction motors in EVs
• Compare conventional IC engine drivetrains with EV drivetrains
Who is this for: Mechanical and electrical engineering students | Automotive professionals upskilling for EV roles | Non-engineers with basic physics and chemistry knowledge | EV enthusiasts who want real technical depth
Explain the complete electrical power flow inside an electric vehicle from battery to wheel
Compare BEV, HEV, PHEV and FCEV architectures and choose the right type for any application
Perform step-by-step powertrain sizing calculations for an EV design project
Describe AC Level 1/2/3 and DC fast charging technologies with real connector standards
Understand Li-ion battery chemistry — NMC, LFP, LTO, NCA — and select the right type
Analyse BLDC and induction motor operation and their control strategies in EVs
Read and interpret battery parameters: C-rate, SOC, SOH, energy density, cycle life
Compare conventional IC engine drivetrain with EV drivetrain in efficiency and performance
Explain smart charging, V2G concepts, and EV charging infrastructure
Describe the role of the Battery Management System (BMS) and thermal management