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Electric Vehicle (EV) Design and Analysis Training
Drive your success with myTectra’s Electric Vehicle (EV) Design and Analysis Training. Learn advanced EV concepts and industry practices. Enroll Today!
Course Overview
Learn EV design and analysis with MATLAB/Simulink, ANSYS, and projects. Gain skills to design, optimize, and test complete EV systems.
This course offers a step-by-step learning journey into the design, modeling, and performance analysis of Electric Vehicles (EVs). Starting from fundamental concepts in vehicle dynamics and battery systems, it progresses to advanced topics such as drivetrain design, power electronics integration, control strategies, and simulation-based performance analysis. Learners will gain hands-on exposure to MATLAB/Simulink, ANSYS, and other industry-standard tools, enabling them to design and evaluate EV systems for real-world applications.
The training is structured into three progressive levels:
- Basic – Core concepts, EV types, power sources, and introduction to modeling.
- Intermediate – Detailed design of subsystems, integration, and performance optimization.
- Advanced – Complete EV design workflow, simulation, testing, and case study projects.
Learning Objectives
Prerequisites
Basic Level:
- Basic knowledge of physics, mathematics, and electrical fundamentals.
- Familiarity with mechanical systems.
Intermediate Level:
- Completion of the basic level or equivalent industry experience.
- Basic understanding of MATLAB/Simulink (advantageous but not mandatory).
Advanced Level:
- Completion of intermediate level or relevant hands-on experience.
- Knowledge of embedded systems and simulation tools preferred.
Curriculum
- History and evolution of EVs
- EV vs Hybrid vs Internal Combustion Engine (ICE) vehicles
- Applications in personal, commercial, and industrial sectors
- Battery Electric Vehicle (BEV)
- Hybrid Electric Vehicle (HEV)
- Plug-in Hybrid Electric Vehicle (PHEV)
- Fuel Cell Electric Vehicle (FCEV)
- Forces on a moving vehicle (tractive force, rolling resistance, aerodynamic drag)
- Acceleration, braking, and gradeability
- Electric motor types (BLDC, PMSM, induction)
- Battery pack basics
- Power electronics overview (inverters, converters, chargers)
- Battery chemistry overview (Li-ion, LFP, NiMH)
- Cell configurations and pack assembly
- SOC, SOH, and energy density basics
- Overview of MATLAB/Simulink and ANSYS for EV analysis
- Torque-speed characteristics
- Motor sizing for EV applications
- Efficiency maps
- Cell selection and configuration
- Thermal management system basics
- Passive vs active cooling strategies
- DC-DC converters, inverters, and onboard chargers
- Regenerative braking circuitry
- Longitudinal and lateral dynamics
- Weight distribution and center of gravity considerations
- Motor control strategies (FOC, DTC)
- Energy management strategies
- Range estimation and driving cycle analysis (NEDC, WLTP)
- Efficiency improvement methods
- CAN protocol basics in EVs
- Fault detection and diagnostic systems
- SOC/SOH/SOE estimation techniques
- Kalman filter and adaptive algorithms for battery state estimation
- Multi-domain simulation in MATLAB/Simulink
- Coupling with ANSYS for thermal & structural analysis
- Component integration into full vehicle model
- Range, acceleration, and top speed prediction
- Cooling systems for motors, batteries, and power electronics
- CFD-based thermal analysis
- AC/DC charging levels and standards
- V2G (Vehicle-to-Grid) technologies
- Hardware-in-the-loop (HIL) testing
- Real-world performance testing and data analysis
- Design of a complete EV for a target performance specification
- Simulation and optimization of the design
- Presentation and review of project outcomes
- Basic EV performance calculation using MATLAB
- Battery pack sizing and configuration
- Motor torque-speed curve plotting and selection
- Simulating a WLTP driving cycle
- Designing an inverter for an EV motor
- Integrating subsystems into a full EV model
- Simulating regenerative braking efficiency
- Conducting HIL tests for EV control logic
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FAQ's
This course equips learners with skills to design, model, and analyze complete EV systems. It focuses on improving efficiency, safety, and performance using advanced tools, simulations, and real-world applications.
Yes, participants receive a certificate of completion from myTectra upon finishing the course.
myTectra offers both online and in-person training options to accommodate different learning preferences.
Payments can be made using any of the following options and a receipt of the same will be issued to you automatically via email for both classroom training and Online training.
- Visa Debit/Credit Card
- American Express and Diners Club Card
- Master Card
- PayPal
- Net Banking/Wire Transfer
- UPI Payment such as Google Pay, PhonePe, Paytm
- Cash/Cheque/DD ( Not for Online Training )
Just give us a CALL at +918047112411 OR email at support@mytectra.com
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Access to Soft Skill Enhancement
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