Automotive Electronics Syllabus

The following syllabus is representative. Actual subjects depend on the institution and whether the programme originates in an electronics, electrical or automobile department.

First-year subjects

• Engineering Mathematics
• Engineering Physics
• Engineering Chemistry
• Basic Electrical Engineering
• Basic Electronics Engineering
• Programming Fundamentals
• Engineering Graphics
• Engineering Mechanics
• Workshop Practice
• Environmental Science
• Communication Skills
• Professional Ethics

Mathematics supports control theory, signal processing and circuit analysis. Programming becomes important for microcontrollers, diagnostics, simulation and data processing.

Second-year subjects

• Electronic Devices and Circuits
• Digital Electronics
• Network Theory
• Signals and Systems
• Electrical Machines
• Microprocessors and Microcontrollers
• Control Systems
• Sensors and Transducers
• Analogue and Digital Communication
• Data Structures
• Vehicle Fundamentals
• Engineering Materials
• Measurement and Instrumentation
• Power Electronics

These subjects build the foundation required to understand automotive controllers and electrical systems.

Third-year subjects

• Automotive Electrical Systems
• Automotive Electronic Systems
• Embedded-System Design
• Automotive Sensors and Actuators
• Electronic Control Units
• Automotive Communication Protocols
• Digital Signal Processing
• Vehicle Control Systems
• Automotive Instrumentation
• Powertrain Electronics
• Automotive Diagnostics
• Electrical and Hybrid Vehicles
• Real-Time Operating Systems
• Mechatronics
• Control-System Laboratory
• Embedded-Systems Laboratory

Students begin integrating electronic hardware and software with vehicle functions.

Fourth-year subjects

• Advanced Driver-Assistance Systems
• Battery-Management Systems
• Electric Drives and Motor Control
• Functional Safety
• Automotive Cybersecurity
• Telematics and Connected Vehicles
• Vehicle Networking
• Model-Based Design
• Automotive Software Architecture
• Intelligent Transportation Systems
• Autonomous Vehicle Fundamentals
• Testing and Validation
• Reliability Engineering
• Electives
• Internship
• Major Project

The presence of these subjects does not guarantee advanced laboratory coverage. Students should inspect the detailed curriculum and facilities.

Important Automotive Electronics subjects

Electronic control units

An electronic control unit is an embedded controller responsible for one or more vehicle functions. Students may study its processor, memory, input conditioning, output drivers, communication interfaces, software and protection circuits.

A vehicle can contain numerous controllers for powertrain, braking, body electronics, safety, battery management and infotainment.

Sensors and actuators

Sensors measure physical conditions such as temperature, pressure, speed, position, acceleration or gas concentration. Actuators convert commands into physical action.

Students should understand:

• Measurement principles
• Signal conditioning
• Calibration
• Accuracy
• Noise
• Failure modes
• Environmental limits
• Sensor interfaces
• Actuator drivers

Embedded systems

An embedded system combines hardware and software to perform a defined function. Automotive embedded systems often operate under timing and safety constraints.

Students may learn:

• Microcontroller architecture
• Embedded C
• Interrupts
• Timers
• Input and output
• Analogue-to-digital conversion
• Communication interfaces
• Memory management
• Real-time behaviour
• Hardware debugging

Automotive communication networks

Electronic modules communicate using vehicle networks. Controller Area Network is widely studied, while curricula may also introduce LIN, FlexRay, Automotive Ethernet and other protocols.

Students learn message transmission, addressing, timing, error handling, network architecture and diagnostic communication.

Automotive diagnostics

Diagnostics identifies faults in vehicle systems. It can involve fault codes, live data, test routines, communication protocols and structured troubleshooting.

Students may learn how diagnostic tools communicate with ECUs and how engineers distinguish between sensor, wiring, actuator, software and mechanical faults.

Power electronics

Power electronics controls and converts electrical power. It is essential in EV inverters, chargers, DC-DC converters, motor drives and several vehicle subsystems.

Important components can include diodes, MOSFETs, IGBTs and emerging semiconductor technologies. Students study switching, conversion, thermal considerations, control and protection.

Battery-management systems

A battery-management system monitors and protects a battery pack. It may estimate state of charge, monitor voltage and temperature, balance cells and communicate with other vehicle systems.

Battery-management study can include:

• Cell monitoring
• State estimation
• Protection logic
• Thermal considerations
• Cell balancing
• Contactor control
• Communication
• Fault handling

Electric drives

Electric-drive subjects cover motors, inverters, control methods and drivetrain integration. Students may study induction motors, permanent-magnet motors, brushless DC motors and related control approaches.

Control systems

Control systems regulate vehicle behaviour using measured information and programmed logic. Applications include engine control, cruise control, motor control, stability systems and thermal management.

Automotive software architecture

Automotive software must be organised for reuse, integration, testing and reliability. Programmes may introduce model-based development, layered architectures, AUTOSAR concepts and software lifecycle processes.

Functional safety

Functional safety deals with risks caused by failures in electrical and electronic systems. Students may be introduced to hazard analysis, risk classification, safety requirements, verification and safety-oriented development.

Knowledge of a standard’s name is not equivalent to professional competence. Functional-safety roles often require training and industry experience.

Automotive cybersecurity

Connected vehicles can face cyber risks. Automotive cybersecurity may cover threat analysis, secure communication, software integrity, access control, secure updates and incident response.

ADAS

Advanced driver-assistance systems use sensors, processing and control to support the driver. Systems can involve cameras, radar, ultrasonic sensors and other technologies.

Students may study perception basics, sensor interfaces, decision logic, control, validation and limitations. An introductory subject does not by itself prepare a graduate for every ADAS role.

Model-based design

Model-based development uses system models for design, simulation, testing and code-related workflows. MATLAB and Simulink are commonly associated with this area, although tool availability differs by institution.

Testing and validation

Automotive electronics must operate under demanding conditions. Validation may involve:

• Hardware testing
• Software testing
• Hardware-in-the-loop testing
• Software-in-the-loop testing
• Environmental testing
• Electromagnetic compatibility
• Fault injection
• Network testing
• Regression testing
• Requirement traceability

Laboratories

Relevant laboratories may include:

• Electronic-circuits laboratory
• Digital-electronics laboratory
• Microcontroller laboratory
• Embedded-systems laboratory
• Sensors and instrumentation laboratory
• Power-electronics laboratory
• Electrical-machines laboratory
• Automotive electrical laboratory
• Vehicle-networking laboratory
• EV laboratory
• Control-systems laboratory
• Diagnostic laboratory
• MATLAB and simulation laboratory
• ADAS or intelligent-mobility laboratory

Applicants should ask whether laboratories contain functional equipment and whether undergraduate students can use it.

Elective subjects

Possible electives include:

• AUTOSAR
• Automotive Ethernet
• Electric Vehicle Technology
• Battery Technology
• Advanced Embedded Systems
• Radar and Camera Systems
• Computer Vision
• Artificial Intelligence for Mobility
• Vehicle Telematics
• Automotive Cybersecurity
• Robotics
• Internet of Things
• FPGA-Based Design
• Semiconductor Devices
• Digital Control
• Intelligent Transportation
• Reliability Engineering
• Electromagnetic Compatibility
• Human–Machine Interfaces

Project ideas

Students may develop:

• CAN-based vehicle-data monitor
• Battery-management prototype
• Motor-control system
• Driver-drowsiness detector
• Blind-spot warning demonstration
• Tyre-pressure monitoring system
• Vehicle tracking device
• Digital instrument cluster
• Smart lighting controller
• Parking-assistance prototype
• Collision-warning model
• Vehicle diagnostic scanner
• Regenerative-braking controller
• Battery thermal-monitoring system
• Remote vehicle-health application
• ECU fault-detection system
• Secure vehicle-communication prototype
• Sensor-fusion demonstration
• Electric-vehicle energy monitor
• Predictive-maintenance model
• Anti-theft system
• Connected-vehicle data logger

A good project should identify the engineering problem, document requirements, justify component selection, test performance and explain limitations.