Automotive Engineering Syllabus

The syllabus below is representative. Universities may use different subject names and sequences.

First-year subjects

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

These subjects form the scientific and technical foundation required for later vehicle study.

Second-year subjects

• Engineering Thermodynamics
• Fluid Mechanics
• Strength of Materials
• Materials Science
• Kinematics of Machines
• Dynamics of Machines
• Manufacturing Processes
• Machine Drawing
• Heat Transfer
• Electrical Machines
• Electronics and Instrumentation
• Numerical Methods
• Computer-Aided Design
• Metrology

Students learn how forces, motion, heat, fluids, materials and manufacturing processes influence vehicle systems.

Third-year subjects

• Automotive Engines
• Automotive Chassis
• Automotive Transmission
• Vehicle Dynamics
• Automotive Electrical and Electronic Systems
• Machine Design
• Fuel and Lubrication Systems
• Automotive Materials
• Automotive Manufacturing
• Engine Testing
• Emission Control
• Automotive Control Systems
• Vehicle Maintenance and Diagnostics
• Mechatronics
• Computer-Aided Engineering
• Automotive Laboratory

Fourth-year subjects

• Electric and Hybrid Vehicles
• Battery Systems
• Vehicle Aerodynamics
• Automotive Safety
• Noise, Vibration and Harshness
• Finite Element Analysis
• Computational Fluid Dynamics
• Alternative Fuels
• Automotive Embedded Systems
• ADAS Fundamentals
• Connected Vehicles
• Product Development
• Quality and Reliability
• Industrial Management
• Electives
• Internship
• Major Project

Core Automotive Engineering subjects

Engineering thermodynamics

Thermodynamics explains energy conversion, heat, work and efficiency. It supports the study of internal-combustion engines, cooling systems, air conditioning, battery thermal management and energy use.

Fluid Mechanics

Fluid Mechanics covers the behaviour of liquids and gases. Automotive applications include intake and exhaust flow, fuel systems, cooling, lubrication, aerodynamics and hydraulic braking.

Automotive powertrains

A powertrain transfers energy to propel a vehicle. Conventional systems include an engine and transmission. Electric powertrains include a battery, inverter, motor and reduction system. Hybrid systems combine energy sources.

Students may study:

• Engines
• Clutches
• Gearboxes
• Differentials
• Electric motors
• Inverters
• Hybrid architectures
• Drivetrain efficiency
• Energy management

Internal-combustion engines

Students examine petrol and diesel engine operation, combustion, fuel injection, cooling, lubrication, turbocharging, performance and emissions.

ICE knowledge remains useful for conventional and hybrid vehicles, testing, service, alternative fuels and existing vehicle fleets.

Automotive transmission

Transmission systems adapt speed and torque between the power source and wheels. Subjects can include manual, automatic, continuously variable and dual-clutch transmissions, as well as electric drive reductions.

Vehicle dynamics

Vehicle dynamics deals with motion and forces during acceleration, braking and cornering. It includes:

• Tyre behaviour
• Weight transfer
• Suspension
• Steering response
• Ride quality
• Handling
• Stability
• Braking performance

Chassis engineering

Chassis study covers frames, suspension, steering, braking, wheels, tyres and structural arrangements. Engineers balance strength, weight, comfort, handling, durability and cost.

Automotive electrical and electronic systems

Students study batteries, charging, starting, lighting, sensors, controllers, wiring, communication systems and diagnostics.

Modern vehicles require growing electronic-system knowledge, especially for EV, safety and connected-mobility roles.

Electric and hybrid vehicles

Common topics include:

• Electric motors
• Battery packs
• Power electronics
• Regenerative braking
• Charging
• Hybrid configurations
• Energy management
• Thermal management
• High-voltage safety
• Vehicle integration

Battery technology

Battery study can cover cell fundamentals, pack construction, performance, safety, thermal behaviour, state estimation and battery-management systems.

Automotive students may study system integration rather than advanced electrochemistry. Battery research may require Materials, Chemical or Electrical Engineering expertise.

Automotive materials

Vehicle materials must satisfy requirements related to strength, mass, corrosion, crash performance, cost and manufacturability. Students may study steel, aluminium, magnesium, polymers, composites and emerging lightweight materials.

Automotive manufacturing

This subject covers:

• Casting
• Forging
• Sheet-metal forming
• Machining
• Welding
• Joining
• Painting
• Assembly
• Automation
• Production planning
• Quality control

High-volume vehicle manufacturing requires consistent processes and supplier coordination.

Computer-aided design

CAD is used for components, assemblies and engineering drawings. Students may use CATIA, SolidWorks, Creo, Siemens NX or similar platforms.

Good CAD work requires knowledge of tolerances, manufacturing, assembly and design intent—not only the ability to create shapes.

Finite element analysis

FEA helps engineers estimate structural behaviour, stress, deformation, vibration and thermal effects. Students must understand modelling assumptions and validate results.

Computational Fluid Dynamics

CFD may be used to study aerodynamics, cooling, intake systems, exhaust flow and thermal management. Results depend on correct geometry, mesh, boundary conditions and physical models.

Vehicle aerodynamics

Aerodynamics examines how air interacts with a moving vehicle. Engineers consider drag, lift, stability, cooling flow, wind noise and energy efficiency.

Noise, vibration and harshness

NVH engineering aims to understand and control unwanted noise and vibration. It combines structural dynamics, acoustics, measurement and human perception.

Automotive safety

Safety subjects may cover:

• Braking
• Stability
• Crashworthy structures
• Restraint systems
• Visibility
• Pedestrian protection
• Human factors
• Electronic safety
• Testing and regulation

Emission control

Students study pollutant formation, exhaust treatment, engine control, testing and applicable regulatory concepts. Topics may include catalytic converters, particulate filters and exhaust-gas recirculation.

Automotive testing and validation

Automotive systems undergo performance, durability, safety, thermal, vibration, environmental and regulatory testing.

Students may learn:

• Test planning
• Instrumentation
• Data acquisition
• Result analysis
• Failure investigation
• Validation reports
• Requirement traceability

Automotive electronics and embedded systems

Modern curricula may include sensors, electronic control units, vehicle networks and embedded control. Advanced roles may require additional study in ECE, embedded software or control systems.

ADAS and autonomous systems

ADAS uses sensors and control to assist the driver. Introductory study may cover cameras, radar, ultrasonic sensors, sensor fusion and vehicle control.

Autonomous-vehicle development is multidisciplinary and often requires advanced knowledge of Computer Science, AI, Robotics, Electronics and Control.

Automotive Engineering laboratories

Relevant facilities may include:

• Automotive systems laboratory
• Engine-performance laboratory
• Vehicle-dynamics laboratory
• Chassis laboratory
• Automotive electrical laboratory
• EV laboratory
• Battery laboratory
• CAD and CAE laboratory
• Thermal Engineering laboratory
• Manufacturing laboratory
• Materials-testing laboratory
• Emission-testing laboratory
• Metrology laboratory
• Mechatronics laboratory
• Diagnostics laboratory
• NVH laboratory

Applicants should inspect whether equipment is operational and regularly used.

Elective subjects

Possible electives include:

• Motorsport Engineering
• Electric Mobility
• Hydrogen and Fuel Cells
• Battery-Management Systems
• Advanced Combustion
• Alternative Fuels
• Vehicle Telematics
• Autonomous Mobility
• Connected Vehicles
• Automotive Cybersecurity
• Advanced Materials
• Lightweight Structures
• Additive Manufacturing
• Automotive Ergonomics
• Supply-Chain Management
• Intelligent Transportation
• Off-Road Vehicle Engineering
• Vehicle Control
• Product Lifecycle Management

Project ideas

Possible projects include:

• Electric go-kart
• Hybrid energy-management model
• Regenerative-braking system
• Battery thermal-management prototype
• Lightweight chassis
• Vehicle aerodynamic analysis
• Suspension optimisation
• Steering-geometry study
• Tyre-pressure monitoring system
• Emission-performance comparison
• Alternative-fuel engine study
• Vehicle diagnostic system
• Motor-controller prototype
• Driver-drowsiness detection
• Accident-alert system
• Smart instrument cluster
• Predictive-maintenance model
• Solar-assisted EV
• Noise-reduction study
• Crashworthiness simulation
• Autonomous miniature vehicle
• Vehicle-data logger
• Hydrogen-fuel system study
• Battery state-estimation model

A strong project should show design calculations, engineering decisions, testing, results and limitations.