ICTQual Level 4 Diploma in Automotive Engineering 120 Credits

Learning Objectives

To enroll in the ICTQual Level 4 Diploma in Automotive Engineering, learner must meet the following entry requirements:

1. Vehicle Systems and Components

• Understand the fundamental components of automotive systems, such as the engine, transmission, suspension, braking systems, and steering.
• Explain how each vehicle system functions individually and as part of the overall vehicle operation.
• Analyze the interdependencies of various vehicle systems and their impact on vehicle performance, safety, and efficiency.

2. Automotive Electrical and Electronic Systems

• Demonstrate an understanding of automotive electrical circuits, including wiring, battery systems, and control units.
• Assess the role of electronics in vehicle control systems, including sensors, actuators, and safety features.
• Apply diagnostic tools to identify faults in electrical and electronic systems, including wiring and component-level troubleshooting.

3. Vehicle Diagnostics and Fault Finding

• Identify common faults in vehicle systems, including engine management, electrical, and mechanical components.
• Utilize automotive diagnostic tools and techniques to perform fault diagnosis and recommend appropriate repairs.
• Evaluate diagnostic reports to determine the underlying issues affecting vehicle performance and safety.

4. Hybrid and Electric Vehicle Technologies

• Understand the design, operation, and components of hybrid and electric vehicles, including batteries, drivetrains, and electric motors.
• Compare and contrast the technologies behind electric and hybrid vehicles versus traditional internal combustion engine vehicles.
• Assess the maintenance and servicing needs of hybrid and electric vehicles, including battery management systems and charging infrastructure.

5. Automotive Engine Design and Performance

• Analyze the design principles behind internal combustion engines, including performance characteristics, fuel systems, and exhaust systems.
• Evaluate engine performance through key metrics such as power output, fuel efficiency, and emissions.
• Apply tuning techniques to optimize engine performance, ensuring compliance with industry standards for efficiency and emissions.

6. Automotive Materials and Manufacturing Processes

• Identify and describe the materials used in vehicle construction, such as metals, composites, and polymers.
• Understand the manufacturing processes involved in vehicle production, including casting, welding, and assembly.
• Evaluate the role of material selection in vehicle safety, performance, and cost-effectiveness.

7. Vehicle Safety and Crash Testing

• Understand the principles of vehicle safety design, including passive and active safety features like airbags, seatbelts, and stability control systems.
• Analyze crash testing procedures and their role in improving vehicle safety standards.
• Assess the performance of safety systems in real-world accident scenarios and their regulatory compliance.

8. Automotive Fuel Systems and Emissions Control

• Understand the operation and components of automotive fuel systems, including carburetors, fuel injectors, and fuel pumps.
• Examine the environmental impact of vehicle emissions and evaluate the technologies used for emissions control, such as catalytic converters and exhaust gas recirculation.
• Apply knowledge of fuel systems and emissions control to ensure compliance with regulatory standards and reduce environmental impact.

9. Automotive Air Conditioning and Climate Control Systems

• Understand the principles of automotive air conditioning systems, including refrigerants, compressors, condensers, and evaporators.
• Demonstrate the ability to diagnose faults and perform maintenance on air conditioning and climate control systems.
• Evaluate energy-efficient technologies in automotive HVAC systems, including eco-friendly refrigerants and alternative cooling methods.

10. Automotive Project Management

• Apply project management principles to automotive engineering projects, including scheduling, resource allocation, and cost estimation.
• Evaluate the role of project management tools and software in tracking project progress and ensuring quality control.
• Manage automotive engineering projects effectively, meeting deadlines and staying within budget while maintaining high standards of quality.

11. Advanced Vehicle Technology and Autonomous Systems

• Understand the principles behind autonomous driving technologies, including sensors, machine learning, and data processing.
• Examine the different levels of autonomy in vehicles and the associated benefits and challenges.
• Assess the impact of advanced vehicle technologies on safety, regulations, and industry standards.

12. Automotive Industry Regulations and Standards

• Understand the legal and regulatory frameworks that govern the automotive industry, including safety standards, emissions regulations, and homologation requirements.
• Evaluate how industry standards, such as ISO certifications, influence vehicle design, manufacturing, and safety.
• Assess the importance of compliance with regulatory bodies in ensuring the safety, environmental sustainability, and marketability of vehicles.