MODULE - 1 : eMobility Ecosystem

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Module Description:

Topics covered:

• Market trends, user criteria, technology trends in various aggregates in an EV.
• Cost trends as well as supply chain trends.
• Attention to regulatory policies and environmental issues and trends.

Learning Outcomes:

• Ability to understand and address user needs, including performance, costs and safety
• Ability to understand and apply new solutions in eMobility on account of evolving technologies.
• Ensure compliance to regulatory needs, standards and recyclability requirements while engineering or developing an EV or its aggregate.

Applications of the Module:

• product planning, program management for vehicles in OEMs.
• Development and testing of aggregates for an EV.
• Context and direction setting in non-engineering functions like sourcing, quality, production and recycling

MODULE - 2 : Economics for eMobility

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Module Description:

Topics covered:

• Basic economics principles, Economics of EV, Industrial Policy and Energy Economics, Economics of Externalities and renewable energy, The Market for EVs and Supply Chain Challanges

Learning Outcomes:

• Ability to understand basic concepts of economics.
• Ability to understand the economics of externalities.
• Application of economic theories in the context of EVs.

Applications of the Module:

• Business trends and economics of EV.
• Demand and supply scenarios of EV.
• EV and the economics of global climate change.

MODULE - 3 : Vehicle Engineering and Development

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Module Description:

Topics Covered:

Learning Outcomes:

• Possess understanding of customer focused electric vehicle development
• Understand vehicle architecture, Modularity and Vehicle packaging
• Understand intended vehicle application, operation duty cycle etc.
• Have an exposure to key regulatory requirements, safety, and environmental aspects
• Understand the electric vehicle contemporary development process practiced in automotive organizations with a step by step approach

Applications of the Module:

MODULE 4 : Vehicle Dynamics and Control

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Module Description:

Topics covered:

• Introduction to dynamic systems.
• Understanding the three broad sub-domains of vehicle dynamics: longitudinal dynamics, lateral dynamics, and vertical dynamics.
• Overview of key concepts from control systems.

Learning Outcomes:

• Possess an understanding of the fundamental concepts of dynamic systems.
• Analyze a road vehicle for its response when steered.
• Understand the response of a road vehicle during drive and braking.
• Characterize the response of vehicle suspension towards ride comfort, pitch, and roll analysis.
• Have an exposure to key ideas from control systems.

Applications of the Module :

• This module would be useful in product development engineering and computer aided engineering applications in the Electric Vehicle (EV) design and development process.
• The concepts learnt would help engineers analyze the dynamic response of an EV at the design stage, and the results could lead to potential re-design and control for improved vehicle performance.

MODULE 5 : Battery Technology

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Module Description:

Topics covered:

• Explain the electrochemical fundamentals and battery chemistry: next-generation batteries like Na-ion and Na-S will also be introduced.
• Describe the cell manufacturing processes, and details of tests and measurements.
• Modeling of batteries to estimate the state of charge and state of health are explained.
• Safety aspects of lithium-ion batteries, and various failure mechanisms are presented.
• Options available for battery management systems and the implications are summarized.
• Cost estimation using BatPac® tool is illustrated

Learning Outcomes:

• Understand the implications of various battery chemistries
• Interact well with cell manufacturers, and grasp the implications of changes in manufacturing processes
• Interpret the results of cell and battery testing
• Make informed choices on pack design and BMS selection, to enhance the performance without compromising safety
• Estimate the cost of various choices of battery chemistries

Applications of the Module:

• The Battery Technology module is relevant to EV and battery manufacturers.

MODULE 6 : Power Electronics

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Module Description:

Topics covered:

• DC-DC converters: Buck, Boost, bidirectional and interleaved converters
• Isolated DC-DC converters: Forward converter and Flyback converter
• DC-AC converters: Single-phase and three-phase inverters
• Pulse-width modulation (PWM): Selective Harmonic Elimination, Sinusoidal PWM, Third-harmonic injection

Learning Outcomes:

• Understand and analyze the operation of several fundamental power electronic circuits responsible for DC-DC conversion and DC-AC conversion

Applications of the Module:

• Automotive electronics operating at different voltage levels
• Power converters for traction motor and auxiliary drives in EVs and HEVs

MODULE 7 : Motors for Electric Vehicles

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Module Description:

Topics covered:

• Introduction to Scientific Notations and Units
• Relationships Vs. Scaling
• Torque Produced by Motor & Torque Saturation
• Physics of a DC Motor
• Three Phase Circuits – A quick recap
• Speed of a motor – Electrical and Mechanical
• Property of a PMSM Motor
• Engineering Considerations

Learning Outcomes:

• To understand, analyze the principles of Permanent Magnet Synchronous Motor for electric vehicle application
• Understand the performance requirements of an electric vehicle and correlate them with the specifications of the traction motor.
• Develop the specifications of a motor that would align with the demands of an electric vehicle – To select an appropriate motor
• Appreciate the key engineering constraints that impact the choice of a motor for a given EV application – such as Size, Cost, Efficiency, etc.
• Develop a first-cut design of a motor that would meet the targeted performance of a EV
• To characterize and understand an out-of-shelf motor by using datasheets and specification sheets
• Understanding motor’s technical and engineering considerations while designing and developing motors.

Applications of the Module:

MODULE 8 : Thermal Management for Electric Vehicles

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Faculties:

Module Description:

Topics covered:

• In EVs, systems like Li-ion battery pack, motors and controllers etc. need to be operated within specified temperature limits. If thermal management is not done effectively, it may lead to unsafe operation and could affect the performance, reliability and thus cost & affordability of the EV
• How to apply various thermal management techniques to build and optimise different types of EV thermal management systems.

Learning Outcomes:

• Fundamentals of Thermodynamics and Heat Transfer.
• Heat load/Cooling load Li-ion battery, Traction Motors and Controller, Power electronics.
• Various types of thermal management techniques.

Applications of the Module :

MODULE 9 : System Integration and Calibration

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Module Description:

Topics covered:

• Vehicle System integration representations, maps and their relevance Requirements for Integration - Mechanical, Electrical Power, Signals, Analysis and Control.
• Calibration between subsystems.
• Testing, Validation and Certification / Approvals.

Learning Outcomes:

• Appreciation for how the Vehicle subsystems work together into a full system resulting in the performance of the vehicle.
• Gain understanding of the typical integration constraints and complexities, and methodologies to optimize the overall vehicle performance, cost etc.
• Understanding how test methods relate to the vehicle Requirements in the real world with respect to the test equipment and Processes.

Applications of the Module:

• Systems Integration Reviews from early design stages, through development to product validation
• Product Performance testing, feedback, and validation

MODULE 10 : Powertrain and Fuels

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Module Description:

Topics covered:

• Fundamentals of power trains and the forms of energy required to operate it.
• Multiple power trains architecture, both conventional and contemporary
• Understanding the effect of the power trains and their fuels on environment through emission, cost and efficiency analysis.

Learning Outcomes:

• Conventional and Contemporary powertrain used in automobile
• Energy sources to power up an automobile
• Various approaches to calculate the performance, efficiency and fuel/energy storage
• To lay/develop a foundation for energy conversion, efficiency, emission and renewables in an automobile

Applications of the Module:

• This module will help professionals and researchers develop a fair understanding of powertrains and fuels, and will enable them to decide and move towards clean transportation
• The content of the module is relevant for both academic and industrial requirements

MODULE 11 : Charging Infrastructure

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Module Description:

Topics Covered:

• Charging infrastructure challenges, types of electric vehicle supply equipment (EVSE), charger classification and standards
• Emphasis will be given to various configurations and architectures of onboard and offboard charging technologies
• Case studies along with an overview of upcoming techs and trends in battery charging infrastructure

Learning Outcomes:

• Understand how energy is pumped into the battery pack using various modes of charging
• Understand the fundamentals and overview of electric vehicle supply equipment, standards, charging protocols and communication
• Understand the requirements and various conversion stages in battery charging
• Familiarize with modern battery charging technologies

Applications of the Module:

Module 12 : Materials for eMobility

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Module Description:

Topics Covered:

• Materials utilized for fabricating various parts of an electric vehicle; ranging from battery pack, power electronic modules, motors, power train, suspension and regenerative braking system.
• The electrical, thermal and mechanical properties of materials and its correlation with microstructure and testing procedures for generating these properties, which constitute design parameters will be covered.
• Special emphasis will be given on battery materials, thermal interface materials, magnetic materials used for motors, and materials selection criteria for the specific application in Electric vehicles.

Learning Outcomes:

• Expose basic concepts of materials science covering thermal, electrical, and mechanical properties of materials used for fabricating various parts of electrical vehicle
• Equip the electric vehicle design engineers with the selection criteria for choosing right materials to fulfill the manufacturability and the functional aspects of parts in EV

Applications of the Module:

• This module is essential for the design and development of prototypes of various parts of Electrical vehicles. A thorough understanding of electrical, thermal, magnetic and mechanical properties of materials will enable design engineers to pick up right candidate materials for the manufacturing of battery packs, power electronic modules, and motors
• It will also enable design engineers to address the failure issues such as thermal runaway, leakage, and poor performance of life of battery pack and motors from the materials science perspectives besides design issues.

Module 13 : Electromagnetic Compatibility for Electric Vehicles

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Module Description:

This module will cover Electromagnetic compatibility for electric vehicles.

Topics Covered:

• Provide an overview of EM compatibility for product design.
• Emphasis will be given to non-ideal behavior of electronic components commonly used in EVs, and the EMC directives.

Learning Outcomes:

Applications of the Module: