Specialization Course in
Multiphysics Simulation for EV and FCEV Design
Course Overview:
This course provides learners with a comprehensive understanding of Multiphysics simulation applied to electric vehicles (EVs) and fuel cell electric vehicles (FCEVs). The program covers finite element analysis (FEA), computer-aided engineering (CAE), computational fluid dynamics (CFD), structural and dynamic analysis, battery modeling, and thermal integration. Participants gain hands-on experience with industry-standard tools and real-world case studies, enabling them to simulate, optimize, and validate EV and FCEV components and systems, ensuring performance, safety, and efficiency across multiple disciplines.
Course Objectives:
Apply FEA and CAE tools for structural and performance analysis of EV/FCEV components.
Model and simulate dynamic behavior, crashworthiness, and fatigue.
Use CFD for aerodynamic and thermal analysis.
Simulate battery performance and thermal behavior.
Integrate thermal systems and hydrogen fuel cells into vehicle architecture.
Course Modules
Basics of FEA and CAE tools (ANSYS, Abaqus)
Applications in BEV and FCEV design
Structural analysis: stress, strain, deformation
Hands-on simulation and case studies
Detailed modeling of vehicle assemblies
Material behavior (composites, metals)
Dynamic analysis and optimization
Simulation validation and industry case studies
Crashworthiness and safety analysis
Fatigue and durability under cyclical loading
Hands-on dynamic simulation projects
Aerodynamic analysis: drag, lift, airflow
Thermal management in BEVs and FCEVs
Battery performance and thermal simulation
CFD projects and case studies
Thermal optimization for EVs and FCEVs
Fuel cell basics and integration
Simulation of thermal and fuel cell systems
System-level integration and case studies
Target Industry Profiles
CAE/FEA Simulation Engineers
Battery and Thermal System Designers
CFD Analysts
Crash and Safety Engineers
Fuel Cell Integration Specialists
EV/FCEV R&D and Testing Teams