The ICTQual Level 6 Diploma in Automotive Engineering is designed to develop learners into highly skilled, innovative, and competent automotive engineers. Over three years, students acquire advanced knowledge, practical expertise, and professional competencies, preparing them for diverse roles in automotive design, manufacturing, diagnostics, and management.

Year 1: Foundation and Core Engineering Principles

Introduction to Automotive Engineering

• Understand the fundamentals of automotive engineering and vehicle systems.
• Identify key components and technologies in modern vehicles.
• Apply basic automotive principles to simple design and analysis tasks.
• Evaluate industry trends and their impact on automotive development.

Mathematics for Automotive Engineering

• Apply mathematical tools such as algebra, calculus, and statistics to automotive problems.
• Solve engineering equations relevant to vehicle dynamics and systems.
• Use mathematics to model and analyze automotive components.
• Interpret results to support design and optimization tasks.

Physics for Automotive Engineering

• Understand core physical principles relevant to vehicle systems.
• Apply mechanics, thermodynamics, and fluid dynamics to automotive problems.
• Conduct experiments to validate theoretical concepts.
• Evaluate physical phenomena impacting vehicle performance.

Mechanical Engineering Principles

• Apply mechanical principles to analyze forces, moments, and energy in automotive systems.
• Understand stress, strain, and material behavior in components.
• Design simple mechanical systems and evaluate functionality.
• Conduct calculations for vehicle components using engineering standards.

Automotive Systems and Technology

• Understand major automotive systems including engines, transmission, and brakes.
• Analyze system interactions and performance criteria.
• Apply knowledge to basic vehicle design and diagnostics tasks.
• Evaluate emerging technologies and innovations in automotive engineering.

Electrical and Electronic Systems in Vehicles

• Understand electrical and electronic principles for automotive applications.
• Analyze vehicle electrical circuits and control systems.
• Apply skills to diagnose and troubleshoot basic automotive electronics.
• Conduct practical exercises with sensors, actuators, and vehicle modules.

Engineering Materials for Automotive Design

• Identify materials used in automotive components and their properties.
• Analyze material behavior under operational conditions.
• Select appropriate materials for specific automotive applications.
• Apply knowledge in practical design and manufacturing scenarios.

Vehicle Chassis and Suspension Systems

• Understand chassis design principles and suspension system types.
• Analyze vehicle stability, handling, and load distribution.
• Apply design principles in laboratory or simulation projects.
• Evaluate system performance under different operational conditions.

Introduction to Vehicle Diagnostics

• Understand diagnostic tools and procedures for automotive systems.
• Apply basic fault-finding techniques using diagnostic software and instruments.
• Analyze vehicle system data to identify issues.
• Develop problem-solving approaches for real-world scenarios.

Manufacturing Processes for Automotive Engineering

• Understand production techniques for automotive components and assemblies.
• Apply knowledge of machining, forming, and assembly processes.
• Evaluate process efficiency, quality, and cost considerations.
• Conduct practical exercises simulating production scenarios.

Automotive Environmental Issues

• Understand environmental impacts of vehicles including emissions and resource usage.
• Apply strategies for reducing environmental footprint.
• Evaluate regulatory and sustainability requirements in automotive engineering.
• Analyze case studies on eco-friendly automotive technologies.

Health, Safety, and Environmental Management

• Apply health and safety principles in automotive engineering settings.
• Understand workplace regulations and standards.
• Implement safe practices in workshops and laboratories.
• Evaluate risk assessments and compliance measures.

Year 2: Advanced Automotive Technologies and Systems

Advanced Engine Technologies

• Understand advanced combustion, fuel injection, and turbocharging technologies.
• Analyze engine performance, efficiency, and emissions.
• Apply diagnostic techniques to engine systems.
• Evaluate emerging propulsion technologies including alternative fuels.

Vehicle Dynamics and Handling

• Analyze vehicle motion, stability, and control characteristics.
• Apply dynamic models to predict handling behavior.
• Conduct practical tests or simulations to evaluate performance.
• Optimize suspension and steering systems for performance and safety.

Advanced Automotive Electronics

• Understand electronic control units (ECUs) and embedded systems.
• Apply electronics to engine management, infotainment, and safety systems.
• Conduct diagnostics and troubleshooting for advanced vehicle electronics.
• Evaluate system performance and reliability.

Transmission and Powertrain Systems

• Analyze manual, automatic, and hybrid transmission systems.
• Understand drivetrain configurations and torque distribution.
• Apply calculations and simulations to optimize performance.
• Conduct practical exercises on assembly and troubleshooting.

Vehicle HVAC Systems

• Understand heating, ventilation, and air conditioning systems.
• Analyze system performance and energy efficiency.
• Apply practical skills for HVAC diagnostics and maintenance.
• Evaluate innovative climate control solutions for modern vehicles.

Vehicle Safety Systems

• Understand active and passive safety technologies including airbags, ABS, and traction control.
• Analyze crashworthiness and system effectiveness.
• Apply diagnostic and testing procedures for safety components.
• Evaluate integration of safety systems in vehicle design.

Hybrid and Electric Vehicle Technologies

• Understand electric and hybrid powertrain principles.
• Analyze battery systems, energy management, and regenerative braking.
• Apply diagnostic tools for EV and hybrid systems.
• Evaluate emerging trends in electric mobility.

Automotive Aerodynamics

• Understand principles of airflow and drag reduction.
• Apply aerodynamic analysis to vehicle design.
• Conduct simulations or wind tunnel experiments.
• Evaluate impact of aerodynamics on fuel efficiency and performance.

Automotive Materials Engineering

• Analyze lightweight materials, composites, and alloys for vehicles.
• Apply material selection strategies for performance and sustainability.
• Conduct practical tests on material properties.
• Evaluate material innovations for next-generation vehicles.

Vehicle Assembly and Production Techniques

• Understand assembly line design, robotics, and manufacturing automation.
• Apply lean manufacturing and quality control principles.
• Conduct practical exercises simulating production processes.
• Evaluate production efficiency and system reliability.

Automotive Diagnostics and Troubleshooting

• Apply advanced diagnostic procedures for complex systems.
• Interpret data from sensors, ECUs, and diagnostic tools.
• Develop systematic problem-solving strategies.
• Conduct hands-on troubleshooting exercises.

Vehicle Testing and Performance Evaluation

• Understand testing protocols for engines, chassis, and vehicle systems.
• Apply measurement and analysis techniques to evaluate performance.
• Conduct practical vehicle testing under controlled conditions.
• Evaluate results to recommend improvements or modifications.

Year 3: Industry Applications, Management, and Innovation

Advanced Vehicle Design and Prototyping

• Apply CAD/CAE tools for vehicle design and simulation.
• Develop prototypes for evaluation and testing.
• Analyze design efficiency, safety, and performance.
• Conduct practical projects integrating multiple vehicle systems.

Automotive Control Systems

• Understand control theory applications in vehicles.
• Apply control strategies for engine, braking, and stability systems.
• Conduct simulations to optimize system performance.
• Evaluate integration of control systems in real vehicles.

Automotive Quality Control and Assurance

• Apply quality management systems in automotive production.
• Conduct inspections, testing, and compliance evaluations.
• Analyze defects and implement corrective measures.
• Evaluate continuous improvement strategies for manufacturing.

Sustainability in Automotive Engineering

• Understand environmental regulations and sustainability practices.
• Apply green engineering solutions to vehicle design and production.
• Evaluate life-cycle impact of automotive components.
• Develop strategies for sustainable mobility solutions.

Automotive Project Management

• Plan and manage automotive engineering projects effectively.
• Apply scheduling, budgeting, and resource allocation principles.
• Evaluate project risks and quality standards.
• Develop professional leadership and team management skills.

Automotive Research and Development

• Conduct systematic R&D for automotive innovation.
• Apply experimental design and testing methods.
• Analyze results to inform vehicle design improvements.
• Evaluate emerging technologies and their market impact.

Vehicle Electromagnetic Compatibility

• Understand EMI/EMC principles in automotive systems.
• Conduct practical testing to ensure compliance.
• Apply mitigation strategies for electromagnetic interference.
• Evaluate system performance under real-world conditions.

Automotive Business and Marketing

• Understand automotive industry economics and market trends.
• Apply marketing strategies for vehicles and technologies.
• Evaluate business models and product positioning.
• Analyze industry case studies for strategic decision-making.

Autonomous Vehicles and Future Technologies

• Understand autonomous vehicle architectures and sensor systems.
• Analyze algorithms for navigation, perception, and control.
• Apply simulation and testing techniques for autonomous systems.
• Evaluate trends and ethical considerations for future mobility.

Vehicle Fleet Management and Operations

• Apply principles of fleet planning, monitoring, and maintenance.
• Analyze operational efficiency and cost management.
• Implement data-driven strategies for fleet optimization.
• Evaluate sustainability and regulatory compliance for fleets.

Automotive Regulatory Compliance and Standards

• Understand international vehicle regulations and standards.
• Apply compliance procedures in design and manufacturing.
• Conduct audits and inspections for regulatory adherence.
• Evaluate impact of standards on product development and innovation.

Capstone Project in Automotive Engineering

• Plan and execute a comprehensive automotive engineering project.
• Apply theoretical knowledge and practical skills to real-world problems.
• Demonstrate problem-solving, design, and project management capabilities.
• Present and defend project outcomes professionally.

Upon completing all units, learners will possess advanced automotive engineering knowledge, practical technical expertise, and professional competencies. Graduates are prepared to excel in vehicle design, manufacturing, diagnostics, electric and autonomous vehicle technologies, project management, and leadership roles in the global automotive industry.