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A young female university student in safety goggles using a soldering iron on a printed circuit board in a helping hands holder at an electronics laboratory bench, with an oscilloscope displaying waveforms and a multimeter beside her, other students working at similar benches in a modern university electronics lab with teal ceiling beams, representing the hands-on circuit design and testing focus of Electrical and Electronic Engineering degrees

DEGREE GUIDE

Electrical and Electronic Engineering

What do Electrical and Electronic Engineering degrees involve?

Electrical and Electronic Engineering degrees teach you how to design, build, and optimise the systems that generate, move, and process electricity and information. You will explore key areas such as circuits and electronics, digital systems and microprocessors, power systems and renewable energy, control and automation, signal processing, communications, and electromagnetics. These courses help you develop strong mathematical, analytical, and programming skills while using industry tools like SPICE, MATLAB/Simulink, FPGA platforms, and PCB design software. You’ll also gain hands-on experience in labs and through design projects—building prototypes, programming embedded systems, and testing hardware with oscilloscopes and other equipment. Many programmes include team projects with industry input and options for a placement year. With this mix of theory and practical experience, you’ll graduate ready for roles in electronics design, energy and renewables, telecommunications, robotics and automation, transport, aerospace and defence, and the fast-growing semiconductor and digital technology sectors.

     Example
Modules

  • Electrical Circuits: Learn how to analyse and design AC and DC circuits using resistors, capacitors, inductors and power sources — a foundation of electrical engineering.


  • Digital and Analogue Electronics: Explore logic gates, microcontrollers, amplifiers and signal processing, building skills to work with both digital and analogue systems.


  • Engineering Mathematics: Develop core mathematical tools, including calculus, complex numbers, matrices and differential equations for solving engineering problems.

Common Degree Names

💼 A placement year is widely available in electronics, robotics, power generation, and tech companies.
🌍 Study abroad is offered at many universities through international engineering exchange programmes.



BEng (Hons) Electrical and Electronic Engineering
MEng Electrical and Electronic Engineering
BEng (Hons) Electrical Engineering
BEng (Hons) Electronic Engineering
BEng (Hons) Electronic and Computer Engineering



These are technical engineering degrees. MEng is a four-year integrated Master’s degree that combines undergraduate and Master’s level study in one course and supports progress toward Chartered Engineer status.

An oscilloscope displaying sine and square waveforms alongside a breadboard circuit with a microcontroller and lit LEDs, a printed circuit board beside a soldering iron, a digital electronics textbook open to logic gates and truth tables, a laptop showing a MATLAB Bode plot, a notebook with hand-drawn circuit schematics and a multimeter with probes, illustrating the practical electronics and systems design skills developed in Electrical and Electronic Engineering degrees

Level 3 (A-level / IB Diploma (HL) / Scottish Highers)


Electrical and Electronic Engineering is about designing the circuits, systems, and devices that power our modern world – from smartphones to renewable energy systems. Because you'll be working with complex calculations and understanding how electricity and signals behave, universities need to see strong foundations in Maths and Physics.


You'll need:


  • Maths – essential for all EEE courses

  • Physics – essential or strongly preferred


Subjects that strengthen your application:


  • Further Maths (or IB AA HL)  – highly recommended for more theoretical programmes if it is available to you.

  • Computer Science or Design & Technology (Electronics) – useful supporting subjects


✨ Maths and Physics together keep the widest range of courses open for you. Further Maths is valuable for the most competitive programmes.


Universities may also accept:


  • BTEC Extended Diplomas in Engineering, usually alongside A-level Maths or with strong maths content within the BTEC

  • BTEC National Extended Certificates or National Diplomas alongside A-levels that meet the subject requirements above

  • T-Levels in Design and Development for Engineering and Manufacturing (which includes an Electrical and Electronic Engineering specialism), Engineering, Manufacturing, Processing and Control, or Maintenance, Installation and Repair

  • IB Career-related Programme (IBCP) with Maths and Physics at Higher Level among your IB subjects (minimum two, ideally three) alongside your Career-Related Study; an Engineering pathway would be directly relevant


Entry expectations vary by university, so always check specific requirements.

Level 2 Qualifications (GCSE / MYP / National 5)


Most courses ask for:


  • GCSE English Language, Maths and Science at grade 4/C or above, or equivalents such as National 5s or MYP


📘 A strong Maths background is important, as EEE involves calculus, algebra, and problem-solving.

Is this degree right for you?

Members can explore whether this degree fits who they are:

  • Skills you'd develop and whether they match your strengths

  • How this aligns with your interests, motivators and values

  • Career paths and where graduates end up

Full access to all self-discovery tools and guides. Cancel anytime.

Skills you would develop in X degree
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Is this a good fit for you?

Use the tabs to explore the kind of person that this would be a good fit for. Do you share the Interests, Motivations, Values, Work identity and skills that people who thrive in this course tend to have?

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Not sure what these things are?  Explore your Identity Tree with us first.

Interests that connect well with an Electrical and Electronic Engineering degree

Students who enjoy this degree often share these interests. You don't need to feel strongly about all of them, and interests develop over time. If one or two catch your curiosity, or sound like something you'd like to know more about, that's a good sign.

Machines, Structures & How Things Are Engineered: This sits at the core of Electrical and Electronic Engineering. You'll study how circuits, motors, power systems, sensors and communication networks are designed and built, learning how electrical and electronic hardware moves from a circuit diagram to a working system.


Technology, Computing & Digital Systems: Computing is structural to the degree. You'll program microcontrollers and embedded systems, work with digital electronics and communications protocols, and build systems where hardware and software are designed together so that the device actually does what it's meant to do.


The Environment & Sustainability: Power electronics and renewable energy integration run through the degree: how solar and wind power feed into the grid, how smart grids balance supply and demand, how batteries store energy, and how electric vehicle charging works. The focus is on electrical energy systems, rather than the broader environmental science that suits a dedicated Environmental Science or Sustainability degree.


Mathematics, Patterns & Data: Mathematics runs continuously through the degree. You'll use calculus, complex numbers, matrices and differential equations to analyse circuits, signals and control systems. If you enjoy using maths to understand how real things work, that's the kind of maths you'll meet throughout the degree.

Careers an Electrical and Electronic Engineering degree could lead you to

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