On-Board Charging Systems for EVs

Course provided by Model Institute of Engineering & Technology

4 modules

Master Secure Coding Practices and Build Safer Applications

5 Level NCrF 

National Credit Framework

60 Hours 

Flexible Learning

Beginner Level

No prior experience required

Micro Credit Course

2 Credit

Course Overview

This course provides in-depth exposure to the architecture, design principles, and advanced functionalities of on-board electric vehicle (EV) charging systems. It aims to bridge foundational electrical engineering with real-world EV applications, sustainability concerns, and evolving industry trends.

Key Learning Highlights

  • Understand EV charger fundamentals, topologies, and classifications.

  • Learn charger design, architecture, and vehicle–grid integration.

  • Explore advanced technologies like V2G, SiC/GaN, and high-frequency converters.

  • Assess sustainability and environmental impact of charging systems.

  • Study global standards, policies, and future innovations.

  • Gain hands-on experience with modeling and analysis of OBC systems.

Tools & Platforms

LTspice

LTspice for Circuit Simulation

MATLAB Simulink

MATLAB / Simulink / PLECS

Power Component Datasheets

Datasheets & Modeling Tools for Power Components

Learning Outcome

By the end of this course, students will be able to:

  • Understand the structure and function of on-board charging systems in electric vehicles.
  • Differentiate among charger types, topologies, and standards.

  • Analyze key parameters influencing design and performance optimization.

  • Explore cutting-edge technologies in charger development.

  • Interpret market, regulatory, and sustainability trends shaping the EV charging domain.

  • Apply hands-on modeling or analysis of simplified on-board charger systems.

Master the course with just 4 Modules

This course covers the fundamentals of on-board EV charging systems, including topologies, classifications, and power electronics for safe energy handling. It explores charger design and integration, addressing architecture, components, and interoperability. Advanced topics include bidirectional charging (V2G), wide bandgap semiconductors, and sustainability impacts. The course concludes with global standards, policies, and future innovations like wireless and AI-based charging.

Fundamentals of On-Board Charging Systems

Dive into the core of on-board charging systems with this foundational module. Learners explore EV charging topologies, the role of power electronics, and classifications of charger types (AC/DC, levels 1–3). The module emphasizes current flow, conversion stages, and the safe handling of energy systems in EVs.

This module delves into charger system architecture, component selection, and vehicle interface strategies. Learners study embedded systems integration, thermal management, and interoperability challenges between vehicle models and grid standards, as well as charger control and protection mechanisms.

This module introduces next-generation technologies such as bidirectional charging (V2G), high-frequency power converters, and wide bandgap semiconductor use (e.g., SiC/GaN). Learners also explore the environmental impact of charging infrastructures and sustainability metrics.

Learners examine international standards (e.g., ISO 15118, CCS, CHAdeMO), incentives, safety regulations, and future innovations like wireless charging and AI-based grid interaction. The module concludes with forecasting adoption trends and the role of on-board chargers in energy ecosystems.

Are you ready to take the next step toward your career?