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Course Outline
Overview of Electric Vehicle Propulsion Systems
- Analysis of electric vehicle propulsion architectures
- Distinctions between traditional internal combustion and electric powertrains
- Key components of electric systems: electric motors, inverters, and drivetrains
Battery Composition and Technical Specifications
- Classification of battery technologies utilized in electric vehicles, including lithium-ion and solid-state options
- Fundamental chemistry and electrochemical processes
- Evaluation of capacity, energy density, and lifecycle performance for government fleet considerations
Battery Management System (BMS) Operations
- Core functions and structural elements of the BMS
- Protocols for monitoring, cell balancing, and safety assurance
- Integration of BMS protocols into broader electric powertrain frameworks for government applications
Propulsion Efficiency and Performance Optimization
- Identification of energy loss factors and methodology for efficiency calculation
- Methodologies to enhance electric powertrain performance standards
- Implementation of regenerative braking systems for energy recovery
Thermal Regulation of Electric Vehicle Batteries
- Strategic approaches to battery pack cooling and heating
- Measures to prevent and control thermal runaway events
- Assessment of temperature effects on battery operational integrity
Advanced Propulsion System Configurations
- Implementation of all-wheel drive (AWD) and dual-motor arrangements
- Deployment of hybrid electric systems and range-extending technologies
- Management of power electronics and control logic for government vehicle systems
Simulation and Validation Methodologies
- Modeling propulsion performance under varied operational conditions
- Procedures for battery testing and diagnostic assessment
- Evaluation of powertrain configurations to ensure compliance with efficiency mandates
Operational Applications and Case Examples
- Review of successful electric propulsion system implementations
- Identification of challenges associated with advanced battery integration
- Key findings derived from industry-level operational data for government reference
Conclusion and Strategic Recommendations
Requirements
- A foundational knowledge of core electrical engineering principles
- Practical experience with automotive systems or powertrain technologies
- Awareness of energy storage concepts and applications
Audience
- Electrical engineers focused on automotive engineering
- Automotive service personnel responsible for EV upkeep
- Energy professionals engaged in EV infrastructure and battery development
14 Hours