MEng Electrical and Electronic Engineering

4 Years On Campus Bachelors Program

University of Exeter

Program Overview

MEng Electrical and Electronic Engineering at the University of Exeter is designed for students who want to develop the technologies that power modern society, from advanced communication systems and electronics to renewable energy and digital solutions. The programme combines engineering theory with practical experience, allowing students to build expertise in electronic design, embedded systems, networking, power technologies and innovative engineering projects while preparing for careers across a wide range of technology-driven industries.

Curriculum Structure

Year 1
The first year introduces the fundamental principles of engineering and provides a strong base in mathematics, computing, mechanics, materials and electronics. You will study modules such as Engineering Mathematics and Scientific Computing, Multi-Disciplinary Group Challenge Project, Fundamentals of Mechanics, Fundamentals of Materials, Fundamentals of Electronics, and Fundamentals of Engineering, developing essential technical knowledge, teamwork skills and problem-solving abilities.

Year 2
In your second year, you begin to specialise in electrical and electronic engineering by exploring areas such as digital systems, communication technologies and control engineering. Modules including Electronic Engineering Challenge Project, Microcontroller Engineering, Modelling of Engineering Systems, Communication and Networking Technologies, Analogue and Digital Electronics Design, Control Engineering, and Electrical Machines and Drives help you develop practical skills in electronics design, embedded systems and engineering applications.

Year 3
The third year focuses on advanced engineering concepts and the development of innovative solutions through design and research activities. Through modules such as Communications Engineering, Engineering Electromagnetics, Electronic and Electrical Design and Build: Part 1 - Research, Electronic and Electrical Design and Build: Part 2 - Development, Electric Machines and Power Electronics, and Power Systems Analysis, you will gain experience in areas including electrical systems, power technologies, communication networks and engineering project development.

Final Year
The final year allows you to explore advanced electrical and electronic engineering topics while completing a major individual project. You will undertake an Individual Project, where you apply your technical knowledge, research skills and design abilities to investigate and develop solutions for complex engineering challenges.

Year in Industry (Optional)
Students can choose the MEng Electrical and Electronic Engineering with Year in Industry option, extending the programme to five years with a professional placement. This opportunity allows students to apply their engineering knowledge in a real workplace, gain practical industry experience, develop professional skills and build connections with employers.

Focus Areas

Electrical Engineering, Electronic Engineering, Communication Technologies, Networking Systems, Analogue and Digital Electronics, Microcontroller Engineering, Embedded Systems, Power Electronics, Electrical Machines, Control Systems, Engineering Design, Electromagnetics, Signal Processing, Renewable Energy Technologies, Research and Innovation

Learning Outcomes

Develop advanced electrical and electronic engineering knowledge, design and analyse electronic systems, apply engineering mathematics and computational techniques, understand communication and networking technologies, create embedded and microcontroller-based solutions, design and test engineering prototypes, analyse electrical power systems, solve complex engineering problems, collaborate in multidisciplinary teams, conduct independent research projects

Professional Alignment (Accreditation)

The MEng Electrical and Electronic Engineering programme develops the advanced technical knowledge and practical skills required for professional engineering careers across industries such as communications, electronics, energy, aerospace, manufacturing and technology. The integrated Master’s structure provides students with a strong foundation for professional engineering development and supports progression towards future professional accreditation.

Reputation (Employability Rankings)

The programme provides industry-focused learning through practical projects, engineering design activities and opportunities to work on real-world electrical and electronic engineering challenges.
Students benefit from Exeter’s strong engineering environment, including access to specialist facilities, research-led teaching and modern engineering learning resources.
Graduates develop valuable skills in technical innovation, analytical thinking, problem-solving and project management, preparing them for careers in specialist engineering and technology sectors.

Experiential Learning (Research, Projects, Internships etc.)

MEng Electrical and Electronic Engineering at the University of Exeter provides students with valuable practical experience by combining engineering theory with hands-on experimentation, design projects and industry-focused activities. Students develop technical skills through specialist laboratories, engineering workshops and research-led projects, applying concepts from electronics, communication systems, microcontrollers, power engineering and digital technologies. The programme encourages students to solve real engineering challenges through teamwork, innovation and practical application, helping them develop the confidence and skills needed for a successful engineering career.

Students gain practical experience through specialist facilities, engineering software, group projects and industry-focused learning opportunities:

Electronics laboratory experience: Students use dedicated electronics laboratories for practical experiments and design activities, working with equipment such as oscilloscopes, function generators, analogue and digital training kits, FPGA development platforms, Arduino kits and circuit prototyping tools.
Engineering design and group projects: Students take part in collaborative projects such as the Multi-Disciplinary Group Challenge Project and electronic engineering design projects, where they work in teams to create solutions to engineering problems while developing project management, communication and problem-solving skills.
Electronics design and simulation software: Students gain experience with specialist engineering software including Multisim for circuit simulation, Ultiboard for PCB design, MATLAB for modelling and analysis, MPLAB IDE for microcontroller programming, FPGA programming tools and Arduino development environments.
Microcontroller and embedded systems practice: Students develop practical skills in designing and programming embedded systems by working with microcontrollers, sensors and digital electronics platforms, preparing them for careers in automation, robotics and smart technologies.
Communication and networking technologies: Students explore modern communication systems and networking technologies through practical activities, developing skills relevant to telecommunications, digital systems and connected technologies.
Electrical power systems facilities: Students use specialist power engineering facilities to explore electrical networks, energy systems, electrical machines and power technologies through practical experiments and simulation activities.
Research-led engineering projects: Students engage with research-inspired learning activities connected to areas such as renewable energy, electrical power systems, advanced electronics and emerging technologies.
Engineering workshops and fabrication facilities: Students have access to engineering workshops, fabrication spaces, electronics laboratories and specialist facilities that support prototype development, testing and practical design work.
Industry experience opportunities: Students can choose the Year in Industry option, gaining professional experience through a workplace placement where they can apply their engineering knowledge, develop industry skills and build professional networks.
Modern engineering learning environment: Students benefit from well-equipped teaching laboratories, specialist equipment and practical learning spaces designed to support innovation, experimentation and engineering development.

Progression & Future Opportunities

Graduates of the MEng Electrical and Electronic Engineering programme at the University of Exeter develop advanced technical knowledge, practical engineering experience and the ability to solve complex technological challenges, preparing them for careers across industries such as electronics, communications, energy, aerospace and digital technology. The programme’s combination of research-led teaching, industry-focused projects and practical experience helps students build the skills needed to succeed in a fast-changing engineering sector. Typical career pathways include electronics engineer, electrical engineer, project engineer and software developer.

Students benefit from career support, industry engagement and professional development opportunities that help them move confidently into graduate roles:

Career support through Exeter’s Career Zone: Students receive support with career planning, CV development, interview preparation, employability skills and access to resources that help them identify suitable graduate opportunities.
Employer engagement and networking opportunities: Students can connect with industry professionals through employer events, engineering activities, networking sessions and career workshops, helping them gain insights into different engineering careers and workplace expectations.
Industrial experience opportunities: Students can choose the Year in Industry option, completing a professional placement during the programme. This allows them to apply engineering knowledge in a real workplace, gain practical experience, develop professional skills and build valuable connections with employers.
Graduate career opportunities: The programme prepares students for roles across electronics, telecommunications, energy systems, robotics, software technology, aerospace and advanced manufacturing industries, where engineering expertise and analytical skills are highly valued.
Industry-focused learning: Students develop workplace-relevant skills through engineering projects, design activities and practical problem-solving tasks that reflect challenges faced by modern technology industries.
Professional accreditation value: The MEng Electrical and Electronic Engineering degree is accredited by the Institution of Engineering and Technology (IET) and meets the academic requirements for progression towards Chartered Engineer (CEng) registration. This provides strong professional recognition and supports long-term career development in engineering.
Engineering reputation and facilities: Students benefit from Exeter’s strong engineering environment, including research-led teaching, specialist laboratories, modern engineering facilities and practical learning opportunities that support innovation and professional growth.

Further Academic Progression:
After completing the MEng Electrical and Electronic Engineering degree, students can continue their studies through postgraduate programmes such as MSc or PhD degrees in areas including Electrical Engineering, Electronic Engineering, Communications Engineering, Power Systems, Renewable Energy Technologies and related specialist fields. Further study can help graduates move into advanced research roles, academic careers, specialist engineering positions and leadership roles within technology-focused industries.