Power the Green Mobility Revolution: Electric Vehicle Engineering & Design

Course Overview & Vision Note

Electric Vehicles (EVs) are the defining engine of modern sustainable transportation. Traditional automotive engineering revolves around the thermodynamic complexities of internal combustion engines. EV engineering flips this upside down: it replaces pistons, fuel lines, and gearboxes with high-efficiency electric motors, advanced chemistry battery packs, and sophisticated power electronics.

This highly technical, physics-and-simulation-heavy course focuses entirely on the core architecture and design principles of modern EVs. You will learn the exact engineering methodologies required to model vehicle dynamics, optimize battery management systems, design efficient powertrains, and integrate smart charging systems. This is the exact technology driving the engineering teams at Tesla, Rivian, BYD, and Lucid.

What You Will Master (Detailed Syllabus Focus)

• Powertrain Architecture & Propulsion: You will master the physics behind electric propulsion. You will learn how to select and control advanced electric motors (such as PMSMs and Induction Motors) and optimize torque-speed characteristics for peak vehicle performance.

• Battery Technology & Management Systems (BMS): An EV is only as good as its energy storage. You will dive deep into lithium-ion cell chemistry, thermal management strategies, and the software algorithms required to monitor State of Charge (SoC) and State of Health (SoH) safely.

• Power Electronics & Auxiliary Systems: Learn how to manage high-voltage energy flows. You will master the engineering principles behind DC-DC converters, main traction inverters, and onboard charging systems that bridge the grid to the battery pack.

• Vehicle Dynamics & Optimization: Master the structural side of EV design. You will analyze aerodynamic drag, rolling resistance, and regenerative braking systems to maximize vehicle range and passenger safety.

Comprehensive 9-Module Curriculum

Module 1: Introduction to Electric Vehicle Systems

• Evolution of EV architecture: From early prototypes to modern skateboard platforms.

• Comparative analysis: Internal Combustion Engine (ICE) vs. Battery Electric Vehicle (BEV) vs. Hybrid (HEV).

• System-level overview of high-voltage and low-voltage EV networks.

Module 2: EV Propulsion & Motor Fundamentals

• Principles of electromagnetic torque generation and traction mechanics.

• In-depth study of EV motors: Permanent Magnet Synchronous Motors (PMSM) and Induction Motors (IM).

• Motor controllers, variable frequency drives, and regenerative braking energy capture.

Module 3: Battery Chemistry & Energy Storage Systems

• Electrochemistry of modern cells (NMC, LFP) and emerging solid-state technologies.

• Cell, module, and pack-level structural packaging.

• Battery thermal management systems (BTMS): Liquid cooling vs. air cooling mechanics.

Module 4: Battery Management Systems (BMS) & Safety

• BMS architecture: High-voltage sensing, cell balancing, and isolation monitoring.

• Algorithmic estimation of State of Charge (SoC), State of Health (SoH), and Depth of Discharge (DoD).

• Thermal runaway mitigation, fault detection, and safety interlocks (HVIL).

Module 5: Power Electronics & Charging Infrastructure

• Traction inverters: DC-to-AC conversion using IGBT and SiC (Silicon Carbide) MOSFETs.

• Charging topologies: Level 1, Level 2 AC charging, and DC Fast Charging (DCFC).

• Global charging protocols and standards (CCS, NACS, CHAdeMO) and Vehicle-to-Grid (V2G) telemetry.

Module 6: Vehicle Dynamics, Aerodynamics & Chasis Packaging

• Tractive effort equations, rolling resistance, aerodynamic drag coefficients, and gradeability.

• Skateboard chassis design: Center of gravity optimization, weight distribution, and crashworthiness.

• Suspension adjustments for high-mass battery packs and structural rigidity.

Module 7: EV Regulations, Testing & Certifications

• Global safety standards (e.g., ISO 26262 for functional safety, UN ECE R100).

• Crash testing protocols for high-voltage battery protection.

• Homologation processes and vehicle efficiency certifications (EPA range testing, WLTP).

Module 8: Environmental Life Cycle Analysis & Sustainability

• Cradle-to-grave lifecycle emissions analysis of EVs vs. ICE vehicles.

• Supply chain ethics and environmental impacts of raw material mining (Lithium, Cobalt, Nickel).

• Circular economy frameworks: Battery second-life grid storage applications and recycling pipelines.

Module 9: Engineering Capstone & Case Studies

• Deep-dive analysis of industry landmarks: Tesla Model 3 teardowns, Rivian's truck platform strategy, and EV startup pivot failures.

• Collaborative Design Review: Peer presentations, simulation validation, and engineering defense of Capstone Projects.

Real-World Capstone Projects You Will Build

1. EV Powertrain & Range Simulation Model

Using MATLAB/Simulink or Python, you will build a mathematical simulation model of an electric car. You will input variables like battery capacity, motor efficiency, vehicle mass, and frontal area to simulate driving cycles (like the FTP-75 or WLTP). Your model will accurately predict the real-world driving range and energy consumption per mile.

2. Battery Pack & Thermal Management Design

Design a 400V modular lithium-ion battery pack from the cell level up. You will calculate the exact series-parallel configuration required to meet a specific energy target, determine structural spacing, and perform a thermal calculation to design a liquid-cooling plate capable of keeping cells under 45°C during a DC fast-charging cycle.

Who Should Enroll?

• Mechanical, Electrical, or Automotive Engineers looking to transition out of legacy ICE domains and upscale into high-voltage systems.

• Systems & Software Engineers who want to design firmware for Battery Management Systems (BMS) and motor controllers.

• Product Designers & Aspiring Tech Entrepreneurs eager to enter the clean-energy mobility space with deep foundational knowledge.

Career Opportunities

The automotive industry is undergoing its biggest transformation in a century, creating a severe shortage of specialized engineering talent. This course equips you for highly technical roles such as:

• EV Powertrain Engineer

• BMS Firmware Developer

• Battery Thermal Management Engineer

• High-Voltage Integration Specialist

• EV Systems Safety Engineer