ICTQual Level 6 Diploma in Electrical Engineering 360 Credits

ICTQual Level 6 Diploma in Electrical Engineering 360 Credits – Three Years

Build, Innovate, and Lead in Electrical Engineering

The ICTQual Level 6 Diploma in Electrical Engineering 360 Credits – Three Years is a globally recognized qualification designed for learners who want to build advanced knowledge and practical expertise in the field of electrical and electronic engineering. This comprehensive program is carefully structured to combine theory, laboratory practice, and industry applications, making it the perfect pathway for those aiming to excel in engineering careers worldwide.

Spanning three years, this Level 6 Electrical Engineering Diploma 360 Credits offers an in-depth curriculum covering key areas such as electrical systems design, power generation and distribution, electronics, renewable energy, and automation. Learners will gain hands-on experience with real-world projects, simulations, and problem-solving activities, ensuring they develop the skills required to meet the demands of modern industries.

One of the major strengths of the ICTQual Electrical Engineering Diploma Level 6 is its international recognition, which opens doors to a wide range of career opportunities in power plants, manufacturing, construction, telecommunication, and renewable energy sectors. With 360 credits across three years, this program not only provides technical expertise but also develops leadership, project management, and analytical skills essential for senior engineering roles.

The International Diploma in Electrical Engineering Level 6 is suitable for both aspiring engineers and working professionals looking to upgrade their qualifications. By successfully completing this diploma, learners will be equipped with the knowledge, confidence, and professional recognition to pursue higher education, specialized certifications, or advanced career roles in electrical and power engineering.

If you are looking for a career-focused, accredited, and globally benchmarked qualification, the ICTQual Level 6 Diploma in Electrical Engineering 360 Credits – Three Years is your gateway to success.

Awarding Body

ICTQual AB

Study Mode

Online

Qualification Level

Level 6

Completion Time

3-Years

Study Units

36 Mandatory Units

Assessments

Qualification Title	ICTQual Level 6 Diploma in Electrical Engineering 360 Credits – Three Years
Level	Level 6
Total Credits	360
Assessment	Pass or fail Internally assessed and verified by centre staff External quality assurance by ICTQual AB verifiers

To enrol in the ICTQual Level 6 Diploma in Electrical Engineering 360 Credits – Three Years ,applicants must meet the following entry criteria:

Minimum Age

Applicants must be 18 years of age or older at the time of registration.

Educational Background

A Level 5 qualification, diploma, or equivalent in a related field such as electrical, electronic, or mechanical engineering is preferred.
Applicants with strong foundations in mathematics, physics, or technical studies are encouraged to apply.
Fresh learners with relevant academic background may also be considered.

Work Experience

Work experience in electrical engineering or related technical fields is recommended but not mandatory.
Experienced professionals may use prior learning and industry exposure to strengthen their studies.
Fresh candidates without work experience can still apply, provided they are committed to completing the full three-year 360-credit program.

English Language Proficiency

Since the course is delivered in English, learners must demonstrate good English communication skills (reading, writing, and speaking).
Non-native English speakers may be asked to provide evidence of proficiency (e.g., IELTS, TOEFL, or equivalent).

This qualification, the ICTQual Level 6 Diploma in Electrical Engineering 360 Credits – Three Years, consists of 36 mandatory units.

Mandatory Units of ICTQual Level 6 Diploma in Electrical Engineering 360 Credits – Three Years

This qualification, the ICTQual Level 6 Diploma in Electrical Engineering 360 Credits – Three Years, consists of 36 mandatory units.

Year 1: Foundational Knowledge

Engineering Mathematics I
Fundamentals of Electrical Circuits
Principles of Electronics
Digital Logic Design
Electrical Machines and Transformers
Introduction to Control Systems
Engineering Drawing and CAD
Introduction to Microprocessors and Microcontrollers
Electrical Measurement and Instrumentation
Physics for Engineers
Health and Safety in Engineering
Sustainability in Electrical Engineering

Year 2: Intermediate Proficiency

Engineering Mathematics II
Power Systems Analysis
Analog Electronics
Embedded Systems and Applications
Electrical Energy Systems
Signals and Systems
Principles of Automation and Robotics
Industrial Electronics
Communication Systems Engineering
Renewable Energy Technologies
Electrical Project Management
Technical Report Writing and Research Methods

Year 3: Advanced Specialization and Application

Advanced Power Electronics
Smart Grid Technology
Electrical Machine Design
Advanced Control Systems
High Voltage Engineering
Instrumentation and Process Control
Advanced Embedded Systems
Energy Storage and Conversion Systems
Wireless and Optical Communication
Electromagnetic Compatibility
Capstone Project
Professional Development and Ethical Practices

Upon successful completion of the ICTQual Level 6 Diploma in Electrical Engineering 360 Credits – Three Years, learners will be able to:

Year 1: Foundational Knowledge

Engineering Mathematics I

Apply fundamental mathematical principles to solve basic engineering problems.
Demonstrate proficiency in algebra, calculus, and trigonometry for electrical applications.
Use mathematical tools to analyze electrical circuits and engineering models.
Develop problem-solving strategies for real-world engineering contexts.
Enhance critical thinking for technical and logical decision-making.

Fundamentals of Electrical Circuits

Explain the laws governing electrical circuits, including Ohm’s and Kirchhoff’s Laws.
Analyze AC and DC circuits using appropriate mathematical methods.
Apply circuit theorems for simplified problem-solving.
Use simulation tools for circuit analysis and verification.
Identify and resolve common circuit-related issues in engineering practice.

Principles of Electronics

Understand the working principles of diodes, transistors, and operational amplifiers.
Design and analyze basic electronic circuits for practical applications.
Demonstrate knowledge of analog and digital electronic systems.
Apply semiconductor principles to solve electronic engineering challenges.
Evaluate performance of electronic devices through experimentation.

Digital Logic Design

Explain the fundamentals of digital systems and binary logic.
Design and implement combinational and sequential logic circuits.
Apply Boolean algebra for simplification of logic expressions.
Utilize digital logic to develop simple computing applications.
Test and troubleshoot digital systems for accuracy and reliability.

Electrical Machines and Transformers

Understand the construction and working principles of electrical machines.
Explain the operation of DC machines, induction motors, and synchronous machines.
Analyze the performance characteristics of transformers.
Apply practical knowledge to machine testing and maintenance.
Demonstrate safe handling of electrical machines in laboratory settings.

Introduction to Control Systems

Explain the principles of open-loop and closed-loop control systems.
Apply mathematical models for system behavior analysis.
Use block diagrams and transfer functions to represent systems.
Evaluate stability and response of control systems.
Apply control theory to practical engineering applications.

Engineering Drawing and CAD

Interpret and produce professional engineering drawings.
Use CAD software to design electrical and mechanical components.
Apply drawing standards and conventions to technical diagrams.
Develop skills in 2D and basic 3D modeling.
Communicate engineering ideas effectively through technical drawings.

Introduction to Microprocessors and Microcontrollers

Understand the architecture and functions of microprocessors and microcontrollers.
Write basic assembly and C programs for microcontroller applications.
Interface input/output devices with microcontrollers.
Apply embedded system principles to solve engineering problems.
Test and debug simple microcontroller-based systems.

Electrical Measurement and Instrumentation

Demonstrate knowledge of measurement principles in electrical engineering.
Use instruments such as voltmeters, ammeters, and oscilloscopes effectively.
Apply calibration techniques for measurement accuracy.
Interpret experimental data and prepare technical reports.
Ensure safety and precision in electrical measurements.

Physics for Engineers

Apply mechanics, electromagnetism, and thermodynamics to engineering.
Explain wave theory, optics, and material properties relevant to electrical systems.
Relate physics principles to practical engineering design.
Conduct laboratory experiments to validate theoretical concepts.
Demonstrate scientific reasoning in solving technical challenges.

Health and Safety in Engineering

Identify workplace hazards and implement safety measures.
Apply health and safety regulations in engineering environments.
Develop risk assessment strategies for engineering projects.
Promote a culture of safety and responsibility in engineering practice.
Ensure compliance with international occupational safety standards.

Sustainability in Electrical Engineering

Understand principles of sustainability in engineering design.
Evaluate the environmental impact of electrical systems.
Apply energy-efficient solutions in electrical engineering projects.
Incorporate renewable technologies in sustainable design.
Promote sustainable practices in professional engineering roles.

Year 2: Intermediate Proficiency

Engineering Mathematics II

Apply advanced calculus, differential equations, and linear algebra to electrical systems.
Model and analyze dynamic engineering systems mathematically.
Use numerical methods to solve complex engineering problems.
Apply probability and statistics in engineering design and testing.
Demonstrate advanced problem-solving and analytical skills.

Power Systems Analysis

Explain the structure and operation of modern power systems.
Analyze transmission and distribution networks.
Apply load flow analysis for system optimization.
Evaluate fault analysis and system stability.
Propose improvements for efficient and reliable power delivery.

Analog Electronics

Analyze and design analog circuits with amplifiers and oscillators.
Apply frequency response and filter concepts.
Demonstrate knowledge of feedback and stability in analog systems.
Use simulation tools for analog circuit analysis.
Troubleshoot analog circuits for performance optimization.

Embedded Systems and Applications

Design embedded systems for real-world engineering applications.
Apply programming skills in C/C++ for embedded devices.
Interface sensors, actuators, and communication modules.
Test and optimize embedded system performance.
Apply embedded solutions in automation and robotics.

Electrical Energy Systems

Explain the principles of energy generation, conversion, and distribution.
Analyze renewable and non-renewable energy systems.
Apply efficiency optimization techniques for energy systems.
Evaluate energy storage and smart grid integration.
Promote sustainable energy practices in engineering solutions.

Signals and Systems

Analyze continuous and discrete-time signals.
Apply Fourier and Laplace transforms in system analysis.
Evaluate the response of linear time-invariant systems.
Use MATLAB or similar tools for signal processing.
Apply concepts in communication and control engineering.

Principles of Automation and Robotics

Explain the fundamentals of automation and robotics systems.
Design robotic control systems for industrial applications.
Apply sensors, actuators, and controllers in robotics.
Program robotic systems for automated tasks.
Promote innovation in automation technologies.

Industrial Electronics

Understand the principles of industrial electronic devices.
Apply power electronics in industrial applications.
Design control circuits for industrial machinery.
Evaluate industrial automation systems.
Ensure safety and reliability in industrial electronic systems.

Communication Systems Engineering

Explain the fundamentals of analog and digital communication.
Apply modulation and demodulation techniques.
Evaluate noise and bandwidth in communication systems.
Analyze wireless and optical communication technologies.
Design and troubleshoot communication circuits.

Renewable Energy Technologies

Understand the principles of solar, wind, hydro, and bioenergy systems.
Evaluate performance of renewable energy installations.
Design renewable systems for sustainable energy supply.
Analyze integration of renewable energy into power grids.
Promote innovation in renewable energy engineering.

Electrical Project Management

Apply project management principles in electrical engineering.
Develop project schedules, budgets, and resource plans.
Manage risks and ensure quality in project execution.
Communicate effectively with stakeholders in technical projects.
Deliver successful projects within scope, time, and cost.

Technical Report Writing and Research Methods

Write professional and structured technical reports.
Apply research methods in engineering studies.
Collect, analyze, and interpret engineering data.
Reference academic sources using international standards.
Communicate research findings clearly and effectively.

Year 3: Advanced Specialization and Application

Advanced Power Electronics

Design and analyze advanced power electronic circuits.
Apply converters, inverters, and power control devices.
Evaluate efficiency and performance of power systems.
Integrate renewable energy into power electronics applications.
Apply advanced simulation tools for power electronics.

Smart Grid Technology

Explain the architecture and components of smart grids.
Analyze smart metering and demand-side management.
Apply digital communication in smart grid systems.
Evaluate cybersecurity challenges in smart grids.
Promote smart energy solutions for sustainable power.

Electrical Machine Design

Apply design principles for electrical machines.
Use CAD and simulation tools for machine design.
Evaluate performance of custom-designed machines.
Apply standards and safety in machine design.
Innovate in electrical machine technologies.

Advanced Control Systems

Design advanced control strategies for engineering systems.
Apply digital control and adaptive control techniques.
Evaluate system stability and optimization.
Use simulation software for control system design.
Apply control theory in robotics, power, and automation.

High Voltage Engineering

Understand principles of high voltage generation and testing.
Analyze insulation systems for high voltage applications.
Evaluate breakdown mechanisms and safety measures.
Apply high voltage techniques in power transmission.
Demonstrate safe practices in high voltage laboratories.

Instrumentation and Process Control

Design and apply instrumentation systems for industrial processes.
Evaluate sensors and transducers for accurate measurement.
Apply process control strategies for automation.
Ensure reliability and accuracy in instrumentation.
Integrate instrumentation with advanced control systems.

Advanced Embedded Systems

Design high-performance embedded systems for specialized applications.
Apply real-time operating systems (RTOS) in embedded design.
Interface advanced hardware modules with embedded processors.
Optimize power consumption and system efficiency.
Apply embedded systems in IoT and industrial automation.

Energy Storage and Conversion Systems

Explain principles of energy storage technologies.
Evaluate performance of batteries, supercapacitors, and fuel cells.
Design systems for efficient energy storage and conversion.
Apply hybrid storage solutions for smart grids.
Promote innovation in energy storage technologies.

Wireless and Optical Communication

Analyze wireless and optical communication systems.
Apply modulation and multiplexing in modern communication.
Evaluate system performance in different environments.
Integrate wireless and optical systems for advanced networks.
Promote innovation in high-speed communication technologies.

Electromagnetic Compatibility

Explain principles of electromagnetic interference (EMI).
Apply standards and regulations for EMC compliance.
Design systems with improved electromagnetic compatibility.
Evaluate shielding, grounding, and filtering techniques.
Promote safe and reliable operation of electrical systems.

Capstone Project

Apply theoretical and practical knowledge to real-world problems.
Design, implement, and test an engineering solution.
Demonstrate project management and teamwork skills.
Communicate findings effectively through reports and presentations.
Showcase innovation, creativity, and technical expertise.

Professional Development and Ethical Practices

Demonstrate ethical practices in professional engineering.
Apply leadership and teamwork skills in engineering contexts.
Promote lifelong learning and continuous professional development.
Ensure compliance with international engineering standards.
Contribute positively to society through engineering practice.

The ICTQual Level 6 Diploma in Electrical Engineering 360 Credits – Three Years is designed for learners, professionals, and industry aspirants who want to build strong expertise in electrical and electronics engineering. Whether you are just starting out or already working in the field, this globally recognized diploma equips you with the right blend of theory, practical knowledge, and industry-ready skills.

1. Aspiring Electrical Engineers

Ideal for learners who wish to pursue a professional career in electrical and electronics engineering.
Suitable for students aiming to gain practical knowledge of circuits, machines, and power systems.
Helps individuals develop a solid foundation in engineering mathematics and physics.
Provides a globally recognized qualification that opens doors to international opportunities.
Equips students with the problem-solving and design skills required for engineering roles.

2. Working Professionals in Engineering

Perfect for technicians and engineers looking to upgrade their skills and qualifications.
Helps professionals transition into specialized roles in automation, power systems, and control engineering.
Supports career progression with advanced expertise in smart grids, renewable energy, and embedded systems.
Enhances professional credibility with an internationally benchmarked qualification.
Provides leadership and project management skills for senior-level positions.

3. Fresh School or College Graduates

Designed for students who have completed their secondary or higher secondary education.
Provides a structured three-year pathway to become industry-ready.
Introduces learners to engineering drawing, CAD, microcontrollers, and digital systems.
Builds confidence in tackling real-world electrical challenges through labs and projects.
Prepares graduates for further academic progression to Bachelor’s or Master’s degrees.

4. Career Changers and Technical Enthusiasts

Suitable for individuals from non-engineering backgrounds who wish to enter the field.
Offers practical exposure in renewable energy, automation, and industrial electronics.
Helps career changers gain the knowledge and certification required to work in engineering.
Provides step-by-step learning from fundamentals to advanced applications.
Creates new opportunities in technology-driven industries worldwide.

5. International Students and Global Learners

Perfect for learners seeking a globally recognized diploma in electrical engineering.
Designed to meet international engineering and technical education standards.
Improves global employability in power, automation, telecom, and renewable industries.
Offers comprehensive exposure to sustainability and modern energy systems.
Prepares students for international academic and career mobility.

6. Employers and Industry-Sponsored Candidates

Suitable for companies looking to train and upskill their workforce.
Provides employees with skills in smart grids, high voltage systems, and advanced electronics.
Ensures alignment with global safety, compliance, and engineering standards.
Enhances staff efficiency through hands-on laboratory and project-based learning.
Strengthens organizational competitiveness by developing in-house engineering expertise.

7. Future Innovators and Researchers

Designed for learners interested in innovation, R&D, and technological advancements.
Prepares students to contribute to cutting-edge fields like IoT, robotics, and renewable energy.
Equips learners with research and technical report writing skills.
Encourages critical thinking for developing sustainable energy and engineering solutions.
Acts as a strong academic base for postgraduate research and advanced study.

We are an approved centre of ICTQual AB, offering learners a globally recognized pathway to achieve the ICTQual Level 6 Diploma in Electrical Engineering 360 Credits – Three Years. Depending on your background and experience, you can follow one of the two certification routes available:

Route 1: Experienced Professionals

This pathway is designed for candidates with at least 6 years of verifiable work experience in the field of electrical engineering or related industries.
Learners can demonstrate their prior knowledge, skills, and professional expertise to meet the diploma requirements.
Experience-based learners undergo an assessment and verification process to align their work achievements with international qualification standards.
This route offers a faster progression for professionals who have already been working in areas such as power systems, automation, electronics, or electrical project management.
Successful candidates are awarded the ICTQual Level 6 Diploma in Electrical Engineering, providing global recognition of their professional standing.

Route 2: Fresh Candidates / Students

This pathway is designed for fresh learners without prior industry experience.
Candidates are required to complete all 36 mandatory assignments across the three years of study, covering foundational, intermediate, and advanced electrical engineering units.
Learners will engage in coursework, laboratory activities, and project work to build both theoretical knowledge and practical expertise.
This route ensures that graduates develop the skills, confidence, and qualifications to start their professional journey in electrical engineering.
Upon successful completion, learners receive the ICTQual Level 6 Diploma in Electrical Engineering 360 Credits, opening global career and academic progression opportunities.