FC Battery Supercapacitor EV in MATLAB

Service Description

Fuel Cell Battery Supercapacitor Powered Electric Vehicle Simulation in MATLAB/Simulink Date: Saturday, 26 September 2026 Mode: Online Workshop Software: MATLAB/Simulink Workshop Overview This hands-on workshop focuses on the design and simulation of a hybrid Fuel Cell (FC), Battery, and Supercapacitor (SC) powered Electric Vehicle using MATLAB/Simulink. Participants will learn the development of power converters for each energy source, PID-based control and tuning, hybrid-source integration, and electric vehicle dynamics. Topics Covered 1. Fuel Cell DC–DC Converter Design Design and control of the DC–DC converter interfacing the fuel cell with the DC bus. 2. Battery Bidirectional DC–DC Converter Design Design and control of the bidirectional converter for battery charging and discharging operation. 3. Supercapacitor Bidirectional DC–DC Converter Design Design and control of the bidirectional converter for supercapacitor power exchange. 4. PID Controller Design and Tuning Implementation and tuning of PID controllers for converter control and improved system performance. 5. Hybrid FC–Battery–Supercapacitor Integration Integration of the fuel cell, battery, and supercapacitor through a common DC bus. 6. DC-Bus Voltage and Power Control Control of DC-bus voltage and coordinated power flow among the hybrid energy sources. 7. Electric Vehicle Dynamics Implementation of vehicle dynamics, including traction power demand, vehicle speed, road-load forces, and operating conditions. 8. Complete MATLAB/Simulink EV Simulation Integration and simulation of the complete Fuel Cell–Battery–Supercapacitor powered electric vehicle system. 9. Simulation Results and Performance Analysis Analysis of converter voltage, current, power flow, DC-bus response, battery SOC, and vehicle performance. Key Learning Outcomes Participants will learn how to: Design DC–DC converters for Fuel Cell systems Design bidirectional DC–DC converters for Battery and Supercapacitor systems Implement and tune PID controllers Control the DC-bus voltage and power flow Integrate Fuel Cell, Battery, and Supercapacitor sources in an EV system Implement electric vehicle dynamics Analyze voltage, current, power, SOC, and vehicle responses Develop a complete hybrid electric vehicle simulation in MATLAB/Simulink Who Can Attend? Suitable for B.E./B.Tech, M.E./M.Tech, Ph.D. scholars, faculty members, researchers, and engineers working in Electric Vehicles.