Course Description
About The Course:
This comprehensive program provides an in-depth understanding of Electric Vehicle (EV) systems, validation methodologies, and automotive embedded processes. Participants gain exposure to the complete EV product development lifecycle, from concept to certification. The curriculum integrates industry-relevant frameworks such as the V-Model and Functional Safety standards including ISO 26262. It emphasizes Design Verification & Validation (DVVP), DFMEA, and structured testing approaches across vehicle and subsystem levels.
Learners will explore EV batteries, traction motors, controllers, charging systems, and vehicle-level integration. The program also covers homologation requirements, regulatory compliance, and embedded system certification processes. Advanced verification techniques including SIL, PIL, and HIL testing are introduced with industry-standard tools.
Designed for engineers, managers, and academicians, this program bridges the gap between theoretical knowledge and practical EV development practices.
Modules Covered:
Module 1 — Electric Vehicle (EV) Product Development Process
Module 2 — V Model Application
Module 3 — Design Failure Mode Effects Analysis
Module 4 — Functional Safety and CAE Tools
Module 5 — EV Verification - Proto Build
Module 6 — Homologation and Certification
Module 7 — EV Baweries
Module 8 — Electric Two Wheelers
Module 9 — EV Traction Motors
Module 10 — Electric Vehicle Level Testing and Validation
Module 11 — Process and homologation requirements for certification of automotive embedded systems
Module 12 — Verification and Validation of Embedded System
Duration of the Program : 3 Months
Course Start date: April 17,2026
Course End date: July 18 ,2026
Time: Pre- recorded lectures will be released on a weekly basis and Online Live sessions on Saturdays (IST)
Last date of Registration: April 16,2026
Module Description
Electric Vehicle (EV) Product Development Process
Module description
EV product overview, product development phases, and Design Verification & Validation Plan (DVVP) applicable for Electric Vehicles.
Concepts covered
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Electric vehicle basics
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Product development swim-line phases
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Design Verification & Validation Plan (DVVP)
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Systematic verification planning
Learning outcomes
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Understanding of electric vehicles
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Systematic EV product development approach at vehicle and aggregate levels
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Structured plan for verification testing
Applications of this module
Design testing, simulation, EV laboratory engineering, and academic programs in automotive and EV engineering.
V Model Application
Module description
Application of the V-Model in EV systems engineering along with Design of Experiments (DOE) techniques.
Concepts covered
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Introduction to V-Model systems engineering process
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Engineering design workflow
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DFMET concepts
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Design of Experiments (DOE) fundamentals
Learning outcomes
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Insights into V-Model approach for EV testing and verification
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Application of DOE for testing and analysis
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Understanding effectiveness of Design Failure Mode and Effects Analysis
Applications of this module
Design testing, simulation, EV laboratory engineering, and faculty involved in automotive and EV engineering.
Design Failure Mode Effects Analysis
Module description
Introduction to DFMEA methodology and its application in Electric Vehicle system design.
Concepts covered
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DFMEA fundamentals
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DFMEA for EV systems
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DFMEA case examples
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DFMEA process steps
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Severity, Occurrence and Detection ratings
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Risk Priority Number (RPN) calculation and interpretation
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Functional safety requirements as per ISO 26262
Learning outcomes
-
Knowledge of DFMEA process, application, and implementation
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Understanding functional safety requirements
Applications of this module
Design testing, simulation, EV laboratory engineers, testing and homologation engineers, faculty members, team leads, and functional managers.
Functional Safety and CAE Tools
Module description
Covers functional safety principles and Computer-Aided Engineering (CAE) tools used for EV virtual design and prototype development.
Concepts covered
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Functional safety fundamentals
-
Introduction to CAE tools
-
Computer-aided virtual engineering software
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Virtual prototype development
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Physical prototype development
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Benefits of prototype validation
Learning outcomes
Applications of this module
Design testing, simulation, EV laboratory engineers, testing and homologation engineers, faculty members, team leads, and functional managers.
EV Verification – Proto Build
Module description
Covers EV prototype verification processes including virtual and physical prototype builds and sign-off procedures.
Concepts covered
-
EV prototype verification
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Virtual prototype build process
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Physical prototype build process
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Prototype sign-off procedures
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Hard point engineering fundamentals
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Stakeholder and supplier approval processes
Learning outcomes
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Understanding the importance of physical prototypes
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Knowledge of prototype quantities and internal approvals
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Supplier sign-off procedures
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Non-conformity criteria and approval processes
Applications of this module
Design testing, simulation, EV laboratory engineers, testing and homologation engineers, faculty members, team leads, proto shop engineers, and managers.
Homologation and Certification
Module description
Introduces regulatory compliance requirements and homologation procedures for Electric Vehicles.
Concepts covered
Learning outcomes
-
Understanding regulatory certification processes at component, system, and vehicle levels
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Knowledge of type approval procedures
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Fundamentals of EV batteries
Applications of this module
Design testing, simulation, EV laboratory engineers, testing and homologation engineers, faculty members, team leads, and proto shop engineers and managers.
EV Batteries
Module description
Provides knowledge of Electric Vehicle battery technologies, testing standards, and Battery Management Systems.
Concepts covered
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EV battery basics
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Battery testing methodologies
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Battery simulation tools
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Battery Management Systems (BMS)
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Battery Thermal Management Systems (BTMS)
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Validation standards and safety requirements
Learning outcomes
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Understanding battery validation tests and standards
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Knowledge of simulation tools
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Understanding BTMS requirements and importance
Applications of this module
Design testing, simulation, EV laboratory engineers, testing and homologation engineers, faculty members, team leads, proto shop engineers, system supplier engineers, and battery module designers.
Electric Two Wheelers
Module description
Focuses on testing and simulation methodologies for electric two-wheelers considering their rapid adoption.
Concepts covered
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Electric two-wheeler systems
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Testing methodologies
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Virtual simulation processes
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Performance validation techniques
Learning outcomes
Applications of this module
Design testing, simulation, EV laboratory engineers, testing and homologation engineers, faculty members, team leads, proto shop engineers, system supplier engineers, and professionals from two-wheeler industries.
EV Traction Motors
Module description
Explains traction motor technologies and controllers used in EVs along with testing and validation procedures.
Concepts covered
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EV traction motor fundamentals
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Motor testing and verification processes
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Testing standards and methodologies
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Types of EV controllers
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Controller functions
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Vehicle Control Units (VCUs)
Learning outcomes
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Understanding traction motor functional requirements
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Knowledge of motor testing and verification
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Understanding controller validation methods
Applications of this module
Design testing, simulation, EV laboratory engineers, testing and homologation engineers, faculty members, team leads, proto shop engineers, system supplier engineers, and professionals from two-wheeler industries.
Electric Vehicle Level Testing and Validation
Module description
Covers vehicle-level testing procedures including sensors, charging systems, and overall EV performance validation.
Concepts covered
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EV sensor types and testing
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Sensor functional validation
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EV charging system types
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Charging control parameters
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Vehicle-level testing methods
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EV simulation techniques
Learning outcomes
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Understanding EV sensor testing procedures
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Knowledge of charging system validation
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Understanding vehicle-level testing and simulation methods
Applications of this module
Design testing, simulation, EV laboratory engineers, testing and homologation engineers, faculty members, team leads, proto shop engineers, system supplier engineers, and professionals from two-wheeler industries.
Intended Audience
Working professional, Connected with electrical vehicle, Engineering development, Testing validation and simulation from OEM's,Tier 1 Tier 2 companies, Engineering service companies, EV startup's
Eligibility
Working Professionals
Certification
Certification of completion would be awarded to the participants on fulfilling the following criteria:
1. Attending and active participation during all the Live Online Interactive sessions.
2. Submission of Weekly assignments and Module Assessment for all modules.
3. Submit feedback forms for all Modules.
Certificate criteria for this course would be as follows:
Total % will be calculated from all 3 categories
(Assignments, Quizzes and Attendance of Live sessions)
|
Type of certificate that will be issued
|
| 75% -100% |
Successfully completed |
| 50% -74% |
Completed |
| 25% – 49% |
Participated |
| <25% |
No Certificate |
Sample Certificate Template:

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