University of York

What you'll study

This programme builds from core mathematical and physical principles to practical electronic design and system integration. Early years concentrate on mathematics, circuit theory, analogue and digital electronics, and programming fundamentals. Later years introduce more specialised topics such as microelectronics, embedded systems, signal processing, communications, control systems, power electronics and RF/microwave principles.

• Year 1: fundamentals of electrical circuits, electronics, programming (C/C++/Python), signals and systems, and supporting mathematics.
• Year 2: intermediate modules in analogue and digital design, microcontrollers and FPGA-based systems, sensors and instrumentation, and laboratory-based experimentation.
• Final year: advanced optional modules in areas such as communications and networks, digital signal processing, microelectronics, control, and power electronics, together with an individual design or research project that demonstrates practical engineering competence.

Practical work is a sustained feature of the degree: laboratory classes, circuit and PCB design, embedded hardware and software development, team-based design projects and a substantial independent final-year project. Software tools commonly used on the course include circuit simulation and PCB layout packages, MATLAB/Simulink and hardware description languages for FPGAs.

Entry requirements

Applicants should normally have strong achievement in mathematics and at least one science subject (commonly physics). Typical offers require A-levels (or equivalent) with high grades in Mathematics and a science subject. Suitable vocational qualifications such as BTECs with high-level distinction grades may be accepted when combined with appropriate mathematics study. International Baccalaureate candidates are generally expected to have strong Higher Level performance including Mathematics and a science.

Other typical expectations include:

• Evidence of competence in mathematics and problem solving.
• Practical experience or interest in electronics, computing or engineering is desirable (for example school projects, clubs or personal prototyping work).
• Applicants whose first language is not English may need to meet recognised English language requirements.

Specific offers and the range of acceptable qualifications vary by applicant context; check the university admissions pages or contact the admissions team for precise entry criteria relevant to your qualifications.

Career prospects

Graduates from electronic engineering typically move into roles such as electronics design engineer, embedded systems engineer, hardware developer, test and validation engineer, communications or RF engineer, control systems engineer, applications or field engineer and technical consultancy. Many join graduate schemes in technology and engineering companies, while others take roles in research and development or move into related areas such as software engineering or product management.

Further study is also a common route: graduates may progress to postgraduate taught or research degrees (MSc, MPhil, PhD) to specialise in areas such as microelectronics, signal processing or telecommunications, or to pursue Chartered/professional qualifications through employer-sponsored programmes.

Why study at University of York

The Department offers a blend of theory and hands-on learning, with teaching supported by practical laboratories and project-based assessment. Students benefit from small-group teaching, personal academic support and opportunities to work on team design projects that mirror industry practice. The university's interdisciplinary research strengths mean students can draw on expertise across materials, computer science and physics for projects and optional modules.

York’s campus and college structure provide a supportive student experience, and there are opportunities to engage with industrial partners, enterprise support and careers services that help with placements, internships and graduate recruitment. The degree prepares students for a wide range of technical careers or further study in engineering and related fields.