MEng (Hons) Electrical and Electronic Engineering

4 Years On Campus Bachelors Program

University of Plymouth

Program Overview

MEng (Hons) Electrical and Electronic Engineering at the University of Plymouth
This is a four-year, full-time integrated master’s programme, with an optional fifth sandwich year, designed to fully prepare you for professional engineering roles, including Chartered Engineer status. The course blends hands-on learning with entrepreneurial and communication skill development in an environment rich with industry participation and support. You’ll study in one of the UK’s largest undergraduate lab facilities, covering electronics, communications, and renewable energy technologies. Accreditation by the Institution of Engineering and Technology (IET) ensures it meets the full academic requirements for Chartered Engineer registration.

Curriculum structure:

 

Year 1

Your journey begins with a strong emphasis on hands-on, practical learning in state-of-the-art labs. You’ll develop essential technical and communication skills through group projects, integrating structured design principles in both hardware and software. Core modules include Embedded System Design and Build, where you prototype real-world solutions; Analogue Electronics, introducing circuit design and analysis; Digital Electronics, covering combinational and sequential logic; Electrical Principles and Machines, which explores circuit behavior and energy conversion; and Engineering Mathematics, laying the groundwork for engineering analysis. Preparing for industry from day one, the Electrical/Robotics Placement Preparation module equips you for future placement opportunities.

Year 2

In your second year, you deepen your understanding of engineering fundamentals and circuit design while continuing to sharpen your project and presentation skills. You’ll work with industrial-standard software tools essential for simulation and real-world design. Core modules include Power Electronics and Generation, where you'll build and interface motor drives and generation systems; Communication Systems, expanding your understanding of electronic and communication principles; Engineering Mathematics and Statistics, covering transforms, probability, and quality control methods; and Control Engineering, introducing system dynamics and control stability. The Real Time Systems Project rounds off the year with hands-on development using microcontrollers and FPGAs. Your placement preparation continues via the second-year-specific module.

Year 3 (Optional Placement Year)

Here, you have the opportunity to step into the real world with a 48-week industrial placement under the Electrical Industrial Placement module. This year allows you to apply your first two years of academic learning in a professional engineering environment, develop confidence, and build valuable industry connections. Many students gain final-year sponsorships or job offers due to strong performance during their placement. Progress is tracked via industry reports and university visits to ensure a meaningful and enriching experience.

Year 4

Back on campus (or pushed to Year 5 if you've taken the placement) for senior-level studies, this year is designed to consolidate your learning and research capabilities. You'll work on an Individual Project, tackling an industry-inspired problem using advanced engineering tools—then present your findings in a showcase setting with industrial prizes. Core modules include Information and Communication Signal Processing, Design and Control of Renewable Energy Technology, and Advanced Embedded Programming. These complement your independent work and help sharpen your analytical, design, and presentation skills.

Year 5 (Final Year)

This final year elevates your expertise to master’s level. You’ll engage with advanced, cutting-edge topics and methods, culminating in a substantial MEng Group Project. Core modules include Nanotechnology and Nanoelectronics – covering nanoscale device fabrication and sensors. and Advanced Power Systems – focusing on design and analysis of modern electrical systems, including simulation and protection strategies. Your group project will address a complex real-world challenge from industry or research—featuring prototype development, interdisciplinary collaboration, and the potential for innovation-led spinoffs showcased at project expos.

Focus areas:

  • Power systems and generation
  • Communication technologies
  • Analogue and digital electronics
  • Embedded systems and robotics
  • Engineering mathematics and statistics

Learning outcomes:
Graduates will have a strong foundation in electrical and electronic engineering principles, with the ability to design, analyze, and implement complex systems. They will possess practical experience gained through laboratory work and industrial placements, and be prepared for professional roles in various engineering sectors.

Professional alignment (accreditation):
The program is accredited by the Institution of Engineering and Technology (IET), fulfilling the academic requirements for Incorporated Engineer (IEng) status and partially for Chartered Engineer (CEng) status.

Reputation (employability rankings):
The University of Plymouth's engineering programs are well-regarded for their emphasis on practical learning and industry connections. Graduates are highly sought after by employers in various sectors, including power systems, communications, and robotics.

 

Experiential Learning (Research, Projects, Internships etc.)

Students in the MEng (Hons) Electrical and Electronic Engineering degree at the University of Plymouth gain career-ready practical skills through immersive, real-world learning. You’re not just studying theory—you’ll be building, testing, and innovating from your very first day. The university’s advanced labs, team projects, optional placements, and research-active culture combine to make learning hands-on and future-focused.

Here’s what your experiential learning journey looks like:

Experiential learning from Day 1
From the outset, the course focuses on practical work—designing, building, testing, and prototyping in state-of-the-art labs and workshops. Early group projects integrate both hardware and software design tasks.

World-class lab facilities and tools

  • PCB manufacturing lab with in-house surface mount technology for producing up to six-layer circuit boards.

  • Wolfson Nanomagnetics Clean Room Suite (class 100 and class 10) for advanced research in spintronics, nanotechnology, biosensors, and multifunctional devices.

  • Communications lab with high-frequency test equipment for developing and testing wireless systems, from discrete circuits to integrated chip-sets (Wi-Fi, Bluetooth).

  • Mechanical workshops with 3D printing, laser cutting, electronics benches, and specialist software such as Proteus, LabVIEW, Quartus, MATLAB, and Keil uVision.

Research-informed teaching
The learning environment is driven by leading research in nanotechnology, biosensors, telecommunications, and renewable energy. Industry-linked projects, including Knowledge Transfer Partnerships (KTP), provide direct exposure to real-world innovation.

Optional placement year
In Year 3, students can undertake a 48-week industry placement in the UK or abroad. Placement tutors provide support and assessment, and many students return with final-year project sponsorship or job offers.

Project-led progression

  • Year 1: Group projects, such as embedded system builds combining hardware and software skills.

  • Year 2: Modules in Power Electronics & Generation, Communication Systems, Control Engineering, and a Real-Time Systems Project focusing on microcontrollers and FPGA development.

  • Final Year: An individual capstone project presented at the Student Project Open Day, with opportunities to win industrially sponsored prizes.

Progression & Future Opportunities

Graduates of the University of Plymouth’s MEng (Hons) Electrical and Electronic Engineering are highly employable, progressing into roles such as senior electrical engineer, systems architect, renewable energy specialist, embedded systems developer, and telecommunications project manager. Many alumni also pursue PhD research or work in cutting-edge sectors like smart energy, autonomous systems, aerospace, and marine technology.

Here’s how Plymouth specifically prepares you for success:

Career Services & Experiential Learning:
The integrated master’s program includes an optional industrial placement year, giving you direct experience with leading engineering firms. Learning blends advanced lectures, specialist labs (e.g., power systems, IoT, and robotics), and team-based projects mirroring real industry challenges. Plymouth’s dedicated STEM Careers Team offers 1:1 mentoring, industry placements, and recruitment fairs with employers like National Grid and Thales.

Industry Partnerships & Research:
The university collaborates with global players (Babcock, Rolls-Royce, Siemens Energy) and regional innovators in marine and renewable energy. Students access facilities like the Marine Building’s smart grid lab and high-voltage testing suites, while engaging in research on offshore wind integration, AI-driven control systems, and nanoelectronics. Industry partners actively recruit graduates for their expertise in sustainable energy solutions, digital twins, and hardware-software co-design.

Graduate Outcomes:
You’ll master advanced topics like power network resilience, machine learning for engineering, and FPGA design, with hands-on use of ANSYS, LTSpice, and embedded C tools. Employers particularly value the program’s emphasis on sustainability and Industry 4.0-ready skills.

Further Academic Progression:
Graduates transition seamlessly into PhD programs (e.g., in marine renewables or robotics) or leadership roles in R&D, energy infrastructure, or systems engineering—bolstered by Plymouth’s research strengths in ocean technologies and smart energy systems.

Program Key Stats

£18,650
Sept Intake : 14th Jan


Eligibility Criteria

BBB
3.0
34 - 36
60

1200
25
6.0
76

Additional Information & Requirements

Career Options

  • Electrical Engineer
  • Electronics Engineer
  • Aerospace Engineer
  • Broadcast Engineer
  • Control and Instrumentation Engineer
  • Design Engineer
  •  Electrical Project Manager
  • Robotics Engineer
  • IoT Solutions Architect
  • Power Systems Engineer

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