Learning Outcomes for the ICTQual AB Level 6 International Diploma in Mechatronics:

Year 1 – Foundation in Mechatronics

Principles of Mechanical Engineering

• Understand the fundamental laws of mechanics, motion, and energy.
• Apply mechanical principles to solve engineering problems.
• Demonstrate knowledge of simple machines, force systems, and structural behaviour.

Fundamentals of Electrical and Electronic Engineering

• Explain electrical principles including current, voltage, resistance, and power.
• Analyse basic electronic circuits and their applications.
• Use measurement tools to evaluate electrical systems.

Engineering Mathematics

• Apply algebra, calculus, and trigonometry to engineering problems.
• Use mathematical models to interpret technical systems.
• Develop problem-solving skills through applied numerical methods.

Introduction to Computer Programming

• Understand programming logic and flow control.
• Develop simple programs using a high-level language (e.g., C/C++ or Python).
• Apply programming to solve basic engineering-related tasks.

Materials Science and Engineering

• Identify different classes of engineering materials and their properties.
• Understand the relationship between structure and performance.
• Select appropriate materials for specific engineering applications.

Engineering Drawing and CAD

• Interpret engineering drawings using international standards.
• Use CAD software to create 2D and 3D models.
• Apply geometric tolerancing and dimensioning principles.

Basics of Control Systems

• Understand open-loop and closed-loop control systems.
• Analyse system behaviour using transfer functions and block diagrams.
• Demonstrate knowledge of basic controllers such as PID.

Digital Logic and Microprocessors

• Understand binary systems, logic gates, and combinational circuits.
• Analyse and design simple digital circuits.
• Explain the role of microprocessors in embedded systems.

Sensors and Instrumentation

• Identify different types of sensors and transducers.
• Understand principles of measurement and signal conditioning.
• Apply instrumentation to monitor engineering processes.

Fundamentals of Robotics

• Explain basic concepts of robotic systems and automation.
• Identify different types of robots and their industrial uses.
• Understand coordinate systems and kinematics in robotics.

Health, Safety and Environmental Practices in Engineering

• Apply workplace safety regulations and risk assessments.
• Identify hazards and implement control measures.
• Understand environmental sustainability in engineering practices.

Communication and Technical Report Writing

• Develop clear written and verbal technical communication skills.
• Structure and present engineering reports effectively.
• Use professional referencing and technical documentation standards.

Year 2 – Intermediate Studies in Mechatronics

Advanced Electrical and Electronic Systems

• Analyse AC/DC circuits and power distribution systems.
• Understand advanced semiconductor devices and applications.
• Apply circuit simulation and testing techniques.

Applied Thermodynamics and Fluid Mechanics

• Apply thermodynamic laws to engineering systems.
• Analyse energy transfer in engines, compressors, and turbines.
• Understand fluid dynamics and fluid machinery.

Microcontrollers and Embedded Systems

• Develop embedded systems applications using microcontrollers.
• Interface sensors and actuators with microcontrollers.
• Use assembly and high-level programming for embedded applications.

Automation and PLC Programming

• Understand automation principles in industrial environments.
• Program and troubleshoot PLC-based systems.
• Apply ladder logic and advanced programming functions.

Mechanical Design and Manufacturing Processes

• Apply design principles for mechanical components.
• Understand manufacturing processes including machining, casting, and additive manufacturing.
• Evaluate cost, efficiency, and sustainability in design.

Dynamics and Vibration Analysis

• Analyse motion in dynamic systems.
• Understand vibration theory and its effects on mechanical systems.
• Apply damping and vibration isolation techniques.

Power Electronics and Drives

• Explain the operation of power semiconductor devices.
• Analyse rectifiers, inverters, and converters.
• Understand the control of electrical drives and motors.

Robotics Systems and Applications

• Apply kinematics and dynamics to robotic systems.
• Understand path planning and control strategies.
• Evaluate robotics in industrial automation.

Mechatronic System Design

• Integrate mechanical, electrical, and software components in system design.
• Apply system modelling and simulation tools.
• Develop prototype designs for real-world applications.

Data Acquisition and Signal Processing

• Understand principles of data acquisition systems.
• Apply sampling, filtering, and signal analysis methods.
• Use software tools for processing engineering signals.

Industrial Maintenance and Reliability Engineering

• Apply preventive and predictive maintenance strategies.
• Analyse failure modes and reliability engineering principles.
• Implement condition monitoring techniques.

Project Planning and Management in Engineering

• Understand project management methodologies (e.g., PMBOK, PRINCE2 basics).
• Apply planning tools such as Gantt charts and critical path analysis.
• Manage budgets, resources, and risk in engineering projects.

Year 3 – Advanced Studies in Mechatronics

Intelligent Systems and Artificial Intelligence in Engineering

• Understand AI applications in mechatronics.
• Apply machine learning algorithms for engineering solutions.
• Evaluate expert systems and decision-making models.

Advanced Control Engineering

• Analyse advanced control strategies including state-space models.
• Apply digital and adaptive control systems.
• Design controllers for complex dynamic systems.

Robotics and Autonomous Systems

• Understand autonomy and navigation in robotic systems.
• Apply machine vision and sensor fusion.
• Develop algorithms for autonomous robotic control.

Smart Manufacturing and Industry 4.0

• Understand cyber-physical systems in smart factories.
• Apply IoT and automation in digital manufacturing.
• Analyse challenges and opportunities in Industry 4.0.

Renewable Energy Systems and Applications

• Evaluate renewable energy technologies such as solar, wind, and fuel cells.
• Analyse energy storage and distribution systems.
• Apply renewable energy integration into engineering systems.

Advanced Computer-Aided Design and Simulation

• Develop 3D models and simulate engineering systems.
• Apply finite element analysis (FEA) and computational fluid dynamics (CFD).
• Evaluate design performance through simulation results.

Cyber-Physical Systems and IoT in Engineering

• Understand the integration of hardware, software, and networks.
• Apply IoT protocols in engineering applications.
• Design cyber-physical systems for industrial use.

Advanced Mechatronic System Integration

• Integrate advanced components into a complete system.
• Apply system validation and verification techniques.
• Solve real-world engineering challenges through system integration.

Engineering Research Methods

• Develop research proposals in engineering contexts.
• Apply qualitative and quantitative research techniques.
• Interpret data and present findings in an academic format.

Professional Ethics and Sustainability in Engineering

• Understand ethical responsibilities of engineers.
• Apply sustainability frameworks in engineering design.
• Analyse the social and environmental impact of engineering solutions.

Innovation and Entrepreneurship in Technology

• Understand principles of innovation and technology transfer.
• Develop entrepreneurial skills for engineering ventures.
• Create business models for engineering solutions.

Final Year Major Project (Capstone Project)

• Undertake independent research or applied engineering project.
• Demonstrate integration of multidisciplinary knowledge.
• Present findings through a professional report and presentation.