The ICTQual Level 6 Diploma in Electrical Engineering is designed to equip learners with advanced knowledge, practical skills, and professional competencies required in the dynamic field of electrical engineering. Upon completion of this three-year program, learners will demonstrate both theoretical mastery and practical application in diverse engineering environments, preparing them for professional roles or further academic pursuits.

Year 1: Foundational Knowledge

Engineering Mathematics I

• Apply algebra, calculus, and differential equations to solve engineering problems.
• Interpret and analyze mathematical models relevant to electrical systems.
• Develop problem-solving skills through quantitative analysis.
• Use mathematical software tools to perform computations accurately.

Fundamentals of Electrical Circuits

• Understand Ohm’s Law, Kirchhoff’s Laws, and circuit theorems.
• Analyze DC and AC circuits using systematic methods.
• Apply circuit analysis techniques to solve real-world engineering problems.
• Measure electrical parameters using standard instruments.

Principles of Electronics

• Identify and describe the operation of basic electronic components.
• Design simple electronic circuits for signal amplification and processing.
• Apply semiconductor theory to practical devices.
• Evaluate circuit performance through testing and simulation.

Digital Logic Design

• Understand binary systems, logic gates, and combinational circuits.
• Design and implement sequential circuits, flip-flops, and counters.
• Analyze digital systems using Boolean algebra.
• Use simulation software for digital circuit verification.

Electrical Machines and Transformers

• Explain the principles of operation of AC and DC machines.
• Analyze performance characteristics of transformers and motors.
• Conduct practical experiments to test machine parameters.
• Apply electrical machine knowledge to basic industrial applications.

Introduction to Control Systems

• Understand open-loop and closed-loop control concepts.
• Model and analyze dynamic systems using transfer functions.
• Develop basic control strategies for simple engineering processes.
• Use simulation tools to test control system designs.

Engineering Drawing and CAD

• Interpret and produce technical drawings with accuracy.
• Use CAD software to create electrical schematics and layouts.
• Apply standards for dimensioning and tolerancing.
• Translate theoretical designs into practical drawings.

Introduction to Microprocessors and Microcontrollers

• Explain the architecture and operation of microprocessors and microcontrollers.
• Write simple programs for microcontroller-based applications.
• Interface sensors and actuators for basic embedded systems.
• Troubleshoot and debug microcontroller circuits.

Electrical Measurement and Instrumentation

• Select and use instruments to measure voltage, current, resistance, and power.
• Understand sensor operation and data acquisition techniques.
• Analyze measurement errors and improve accuracy.
• Apply instrumentation knowledge in laboratory experiments.

Physics for Engineers

• Apply principles of mechanics, electromagnetism, and thermodynamics.
• Understand material properties relevant to electrical engineering.
• Solve engineering problems using fundamental physics concepts.
• Demonstrate physics principles through practical experiments.

Health and Safety in Engineering

• Identify hazards and implement safe working practices.
• Understand regulations and standards in electrical engineering.
• Apply risk assessment and safety protocols in practical settings.
• Promote a culture of workplace safety.

Sustainability in Electrical Engineering

• Recognize the environmental impact of electrical systems.
• Analyze energy-efficient technologies and practices.
• Apply sustainability principles in engineering designs.
• Advocate for renewable and eco-friendly solutions in projects.

Year 2: Intermediate Proficiency

Engineering Mathematics II

• Solve complex differential equations and linear algebra problems.
• Apply Fourier and Laplace transforms in system analysis.
• Model and simulate engineering phenomena mathematically.
• Use computational tools for advanced problem-solving.

Power Systems Analysis

• Analyze generation, transmission, and distribution systems.
• Evaluate power system stability and performance.
• Conduct load flow and fault analysis using software tools.
• Propose solutions for efficient energy delivery.

Analog Electronics

• Design and analyze amplifier circuits.
• Apply analog signal processing techniques.
• Use operational amplifiers in real-world applications.
• Evaluate circuit performance through laboratory testing.

Embedded Systems and Applications

• Develop embedded solutions for engineering problems.
• Program microcontrollers for automation tasks.
• Integrate hardware and software components efficiently.
• Test and troubleshoot embedded systems.

Electrical Energy Systems

• Understand principles of energy conversion and storage.
• Analyze electrical power generation methods.
• Evaluate system efficiency and reliability.
• Apply energy management practices in engineering projects.

Signals and Systems

• Analyze continuous and discrete signals mathematically.
• Model systems using Laplace and Z-transforms.
• Apply filtering and modulation techniques.
• Use software tools for signal processing applications.

Principles of Automation and Robotics

• Understand fundamentals of automated systems and robotics.
• Design and simulate basic robotic systems.
• Apply sensors and actuators in control applications.
• Evaluate automation systems for performance and efficiency.

Industrial Electronics

• Analyze and design industrial control circuits.
• Apply power electronics for motor control and drives.
• Conduct fault diagnosis in industrial systems.
• Implement practical solutions for industrial automation.

Communication Systems Engineering

• Understand analog and digital communication principles.
• Analyze modulation and demodulation techniques.
• Design basic communication circuits.
• Evaluate system performance using software simulation.

Renewable Energy Technologies

• Assess solar, wind, and other renewable energy sources.
• Design small-scale renewable energy systems.
• Evaluate energy efficiency and sustainability.
• Implement practical renewable energy solutions.

Electrical Project Management

• Plan and manage engineering projects effectively.
• Understand budgeting, scheduling, and resource allocation.
• Apply project management tools and software.
• Evaluate project outcomes for quality and efficiency.

Technical Report Writing and Research Methods

• Develop clear and concise technical reports.
• Conduct structured research for engineering projects.
• Apply data analysis and documentation standards.
• Communicate technical findings effectively to diverse audiences.

Year 3: Advanced Specialization and Application

Advanced Power Electronics

• Design high-efficiency power electronic converters.
• Analyze switching devices and their applications.
• Implement circuits for industrial and renewable applications.
• Evaluate system performance and reliability.

Smart Grid Technology

• Understand smart grid architecture and components.
• Analyze energy distribution and demand management.
• Apply IoT and communication technologies in smart grids.
• Assess system efficiency and sustainability.

Electrical Machine Design

• Design and model electrical machines for industrial applications.
• Conduct performance simulations and optimization.
• Apply thermal and mechanical considerations in design.
• Evaluate prototype performance in practical tests.

Advanced Control Systems

• Develop multi-variable and adaptive control systems.
• Apply control theory to complex engineering problems.
• Use simulation tools for controller design and analysis.
• Implement real-world control applications.

High Voltage Engineering

• Understand insulation systems and high voltage phenomena.
• Analyze electrical breakdown and insulation coordination.
• Conduct high voltage testing safely.
• Apply knowledge to power transmission and distribution.

Instrumentation and Process Control

• Design control loops for industrial processes.
• Select appropriate sensors and actuators.
• Analyze system stability and accuracy.
• Implement process control strategies in labs and projects.

Advanced Embedded Systems

• Develop complex embedded applications for industry.
• Integrate microprocessors, sensors, and communication modules.
• Optimize software and hardware performance.
• Evaluate system reliability under practical conditions.

Energy Storage and Conversion Systems

• Analyze batteries, capacitors, and alternative storage systems.
• Design energy storage solutions for renewable and conventional grids.
• Evaluate efficiency, safety, and environmental impact.
• Implement practical energy management strategies.

Wireless and Optical Communication

• Understand principles of wireless and fiber optic systems.
• Design basic communication networks.
• Evaluate signal propagation and system performance.
• Apply technologies to modern communication challenges.

Electromagnetic Compatibility

• Analyze interference and compatibility issues in circuits.
• Design mitigation techniques for EMC compliance.
• Conduct EMC testing and evaluation.
• Apply standards in practical engineering designs.

Capstone Project

• Plan and execute a comprehensive electrical engineering project.
• Apply theoretical knowledge to practical engineering challenges.
• Document project development, testing, and outcomes.
• Demonstrate problem-solving, innovation, and project management skills.

Professional Development and Ethical Practices

• Apply professional and ethical standards in engineering practice.
• Develop leadership, teamwork, and communication skills.
• Engage in lifelong learning and professional growth.
• Evaluate social, environmental, and economic impacts of engineering solutions.

Upon successful completion of all 36 units, learners of the ICTQual Level 6 Diploma in Electrical Engineering will possess advanced knowledge, practical engineering skills, and professional competencies to excel in industry, research, and higher education. This structured progression ensures graduates are capable, confident, and globally competitive in the electrical engineering sector.