Drive the future of mobility by mastering Electric Vehicle Architecture, Battery Management Systems (BMS), Power Electronics, Electric Motors, MATLAB/Simulink Simulation, and CAN Bus protocols with 100% placement support.
A comprehensive journey from the chemistry of cells to simulating full automotive powertrains.
Every module bridges mechanical, electrical, and software engineering for complete EV system design.
History, types of EVs (BEV, HEV, PHEV), and core powertrain components and integration.
Li-ion cell chemistries, battery pack design, thermal management, SoC, and SoH calculations.
Cell balancing, protection circuits, voltage/current sensing, and BMS hardware architecture.
Working principles of BLDC, PMSM, and Induction motors. Torque-speed characteristics and selection.
Inverters, DC-DC converters (Buck, Boost), and switching mechanisms for efficient power flow.
In-vehicle networking using CAN (Controller Area Network), LIN, and OBD-II diagnostics.
Mathematical modeling of EV systems, drive cycle simulations, and powertrain sizing.
AC/DC charging stations, fast charging protocols (CCS, CHAdeMO), and Grid integration (V2G).
ISO 26262 compliance, fault tolerance, homologation, and EV testing standards (ARAI/ICAT).
End-to-end design: Developing a simulated BMS model or designing a custom EV powertrain.
You'll emerge as a highly skilled Automotive Engineer ready to tackle modern electric mobility challenges.
Design efficient battery packs and develop advanced algorithms for Battery Management Systems.
Select and integrate optimal electric motors and drive units for specific vehicle dynamics.
Design inverters and converters that maximize the efficiency of power transfer in EVs.
Model, simulate, and optimize complex electric vehicle systems using MATLAB and Simulink.
Architect in-vehicle communication networks for seamless data exchange between ECUs.
Step confidently into roles at top automotive OEMs, Tier-1 suppliers, and EV startups.