Course Duration
Duration
  • Part Time or Full Time
Course Study
Study Mode
  • Online
Course Location
Location
  • Online
Course Code
Course Code
MSc(EE)
Course Intakes
Intakes
  • 1 June 2026
  • 5 October 2026
Course Type
Course Type
  • Master’s Degree
Course Fees
Fees

This UK degree has been developed by industry experts in electrical engineering and renewable energy. As a graduate you will have gained the essential skills and knowledge to meet the demands of the modern power industry. It provides advanced expertise in the analysis, design, and integration of power systems, emphasising the incorporation of renewable energy sources to develop sustainable and reliable energy solutions.

The key advantages:

  • Flexibility: Study remotely, using a supported online platform that accommodates full-time work.
  • Innovative Learning: Access cutting-edge programmes via innovative online tools, including remote labs and simulation software.
  • Global Expertise: Learn from and interact with engineering subject experts; gain a global industry perspective from both local and international lecturers.
  • Practical Knowledge and Skills: Acquire theoretical knowledge and develop hands-on experience.
  • Career Growth: Unlock new career opportunities and boost your earning potential.
  • International Networking: Connect with a diverse community of students from around the globe.
  • Dedicated Support: Share your study journey with your Learning Support Officers; they will guide and nurture you from on-boarding to graduation.

 

 

Programme Overview

As a specialised postgraduate programme, it equips students with advanced knowledge and practical skills in power system analysis, design, and optimisation. Students also become familiar with the integration of renewable energy sources such as solar, wind, hydro, and geothermal. This degree prepares students to manage the complexities of modern power grids. With the increasing demand for sustainable energy solutions that has become critical knowledge.

The curriculum covers essential topics such as power system modelling, load flow analysis, fault analysis, stability studies, and optimisation techniques, with an emphasis on renewable energy integration, smart grids, energy storage, and demand-side management. Students gain hands-on experience through simulations, case studies, and projects where they apply their knowledge to real-world challenges.

Graduates will be prepared for leadership roles in utilities, energy companies, government agencies, and consulting firms, with the expertise to drive the development and optimisation of sustainable energy systems in renewable-powered grids.

After completing this programme you will be able to:

  • Design and Implement Electrical Systems: Develop and deploy advanced power and electrical systems, integrating generation, transmission and distribution networks for efficient and reliable energy solutions.
  • Optimise Power Systems: Apply electrical engineering principles to enhance energy efficiency, reduce operational costs, and improve system performance in industrial and commercial settings.
  • Integrate Cutting-Edge Technologies: Leverage renewable energy, smart grids, automation, and real-time data analytics to create sustainable and intelligent power systems.
  • Troubleshoot and Maintain Electrical Networks: Diagnose and resolve issues in power systems, electrical infrastructure, and control mechanisms to ensure seamless operation and reliability.
  • Lead and Manage Projects: Oversee projects from design to implementation, collaborating with multidisciplinary teams to meet operational and regulatory standards.

These skills position you to drive innovation and transformation in the thriving field of power engineering and renewable energy integration, opening doors to dynamic career opportunities.

This programme is well suited to engineers who are interested in how electricity networks operate, how renewable energy can be integrated at scale, and how data-driven analysis supports reliable and sustainable power systems. It is ideal if you are seeking specialist or senior roles within utilities, energy companies, consultancies, or grid-planning organisations.

If you are motivated to work at the intersection of power engineering, sustainability, and advanced analysis, and you want to develop expertise that is highly relevant to the future of energy in the UK and globally, this MSc offers a strong and focused pathway.

The programme is composed of 8 modules and a project thesis. These modules cover a range of aspects to provide you with maximum practical coverage in the field of the Master of Science (Power System Analysis and Renewable Integration).

 Module Codes Modules Credit
MEEP711 Power Generation 15
MEEP712 Transmission and Distribution Systems 15
MEEP713 Electric Power System Analysis 15
MEEP714 Renewable Energy Systems 15
MEEP715 System Stability Analysis 15
MSCX700 Engineering Practice and Key Research Methods 15
MSPT701 Project Thesis 60
PRAC006 Professional Practice Hands-on Workshop 0
INDX002 Professional Experience 0
Electives (choose 2)
MEEP716 Power System Safety and Protection 15
MEEP717 Smart Grids 15
ELEC721 Power Conversion 15
ELEC722 Power Quality and Mitigation 15
ELEC723 Substation Design and Automation 15
MIAI712 Programmable Logic Controllers 15
MIAI713 Industrial Process Control Systems 15
MIAI715 Industrial Data Communications 0
Total Credits 180

This programme combines practical, industry-relevant learning with ECT’s distinctive online delivery methodology. Designed to be interactive and globally connected, it ensures you develop both technical expertise and real-world skills.

You will gain hands-on experience using industry-standard simulation software and real engineering equipment through ECT’s Virtual and Remote Laboratories, accessible from anywhere in the world.

Teaching blends pre-recorded lectures, which you can study at your own pace, with live interactive tutorials led by industry-experienced lecturers. Dedicated Learning Support Officers provide ongoing guidance throughout your studies.

Where Recognition of Prior Learning (RPL) does not apply, students complete a 40-hour mandatory virtual workshop that develops applied skills through an industry-based case study. In addition, all students must complete 240 hours of approved engineering workplace experience as part of the practical requirements of the degree.

Learn more here.

This programme may use the following software:

  • ETAP
  • Python
  • PowerWorld
  • PSCAD
  • ETAP
  • SPICE
  • Codesys Version 3.5.17.0
  • Homer Pro
  • DIgSILENT PowerFactory
  • MATLAB/SIMULINK
  • PSSE
  • 61850 TestSuite Pro
  • PCM600 (Protection and Control IED Manager)
  • Realterm
  • Modbus (Serial and TCP)
  • Wireshark
  • OPC
  • LabView

Due to ongoing module and programme reviews, software may change from the list provided.

Graduates of this programme will be able to demonstrate the following learning outcomes:

  1. Demonstrate comprehensive understanding of the scientific and engineering principles and apply underpinning natural, physical and engineering sciences, mathematics, statistics, computer and information sciences to solve problems in power systems engineering.
  2. Apply in-depth as well as broad understanding of the relevant specialist body of knowledge within the electrical systems engineering discipline including: fundamental power generation and power system design principles; evaluation power system safety and protection; assessing smart grids; power stability and operational analysis; substation automation and systematic project management.
  3. Critically reflect on a broad body of engineering knowledge to plan and execute research-based projects in power system engineering, remaining aware of evolving trends in risk assessment and security challenges within the field.
  4. Draw on the knowledge of engineering design practice and understand the scope, principles, norms, accountabilities and bounds of sustainable engineering practice in the power systems engineering discipline.
  5. Apply systematic approaches, design processes and established engineering methods, tools, techniques and resources, underpinned by hazard and risk framework considerations to conduct and manage power systems engineering projects.
  6. Communicate technical ideas, design concepts, and research outcomes clearly and effectively to diverse audiences, including conveying complex risk and security considerations in an accessible manner.
  7. Ability to recognise and proactively engage in lifelong learning, as well as develop creative and innovative solutions to engineering problems.
  8. Demonstrate professional use and management of information.
  9. Apply discipline and professional knowledge and skills to demonstrate autonomy, adaptability and responsibility as a professional engineer.
  10. Ability to work as a member of a cross-disciplinary team in a manner consistent with ethical and professional standards and contributing to a culture of robust risk management and security risk practices.

The time commitment for each programme varies based on students’ prior knowledge, experience, and the specific module. Typically, a part-time student would expect to spend 10-15 hours per week. A full-time student would expect to spend 25-30 hours per week. This includes self-study, pre-recorded lectures, live webinars, tutorials, and assessments.

Students studying on a full-time basis are expected to complete their programme over 1 year, and those enrolled on a part-time basis over 2 years.

Graduates of this degree can get involved in a wide range of exciting and rewarding career opportunities across various industries. This degree equips you with the knowledge and skills needed to analyse and optimise electrical power systems, as well as integrate renewable energy sources into existing grids.

Potential job roles include engineering and management positions in the following areas of expertise:

  • Power Systems Engineer
  • Renewable Energy Engineer
  • Grid Integration Specialist
  • Energy Consultant
  • Smart Grid Engineer
  • Energy Storage Engineer
  • Utility Planner or Power System Planner
  • Power Systems Researcher
  • Energy Policy Analyst
  • Project Manager (Renewable Energy Projects)
  • Energy Auditor
  • Electrical Engineer

A minimum of a lower second-class (2:2) honours degree or international equivalent in electrical, electronic or mechatronic engineering. Other disciplines including mechanical, computer science, mathematics, or physics will be considered on a case-by-case basis.

AND

evidence of strong relevant content within your degree programme. When assessing your academic record and the suitability of your degree background, we take into account your grade average with particular emphasis on relevant course units and the standing of the institution where you studied your qualification. We will be checking for sufficient relevant content in at least one of the following areas: electrical power systems, control and automation, maths and programming.

English Language Requirements (if applicable):

  • IELTS at least 6.5 overall with no component below 6.0.
  • TOEFL iBT: at least 90 overall with no subtest below 20.
  • Pearson PTE: at least 70 overall with no subtest below 65.

For a full list of entry requirements by country, please visit our Admissions page.

For full current fees in your country go to the drop-down filter at the top of this programme page or visit the Fees page here.

Payment Methods

Learn more about payment methods, including payment terms & conditions and additional non-tuition fees on the Fees page here .

 

The Higher Education and Research Act (HERA) 2017 requires all higher education providers in England to register with the Office for Students (OfS). As a registered provider, with UKPRN: 10089771, we demonstrate our commitment to complying with the regulatory standards set for higher education institutions in England.

Our UK degrees are designed to meet the highest standards of academic quality and rigour, ensuring they align with industry demands and enhance your career prospects. Upon completion, our students will gain an internationally UK recognised qualification that meets the required UK national educational frameworks.

ECT is also a member of the Quality Assurance Agency for Higher Education (QAA), the UK’s independent quality body for higher education. This membership demonstrates our ongoing commitment to maintaining and enhancing academic quality and standards.

QAA Membership Badge

In accordance with UK consumer protection law, students have a cooling-off period during which they can change their mind, withdraw from their programme and cancel their contract. This period starts when they receive their offer and ends 28 calendar days from the date of enrolment.

If a student cancels within this period, they will not be liable for any tuition fees and will receive a full refund of any fees already paid.

 


  



























































		
		

    
        
    
UK ECT | Engineering College of Technology