St. John's University

What you'll study

This programme combines theoretical foundations with laboratory practice and project-based learning. The curriculum typically spans general engineering and science in early years, progressing to specialised electronic engineering topics and a final-year individual or team capstone design project.

• First year / foundational topics: circuit analysis, calculus and linear algebra, introductory electronics, programming for engineers, physics for engineers, and laboratory practice.
• Core electronic engineering modules: analogue and digital electronics, semiconductor devices, microcontrollers and embedded systems, signals and systems, and electromagnetic theory.
• Advanced and applied modules: control systems, communications and signal processing, power electronics and electrical machines, printed circuit board design and hardware description languages (e.g. VHDL/Verilog).
• Complementary subjects: engineering mathematics, probability and statistics, materials for electronic applications, and project management for engineers.
• Practical work and project: extensive laboratory sessions, computer-aided design and simulation (SPICE, MATLAB/Simulink), team design projects, and a substantial final-year capstone or research project addressing a real-world engineering problem.

Entry requirements

Applicants should demonstrate strong attainment in mathematics and a science subject (typically physics). Admissions consider overall academic record, relevant coursework, and evidence of quantitative ability and problem-solving.

• Typical academic profile: a recognised secondary school diploma or equivalent with strong grades in mathematics and physics or engineering-related subjects.
• For those from alternative systems: completion of an equivalency qualification demonstrating readiness for undergraduate study in engineering.
• Additional assessment: some applicants may be asked to provide a personal statement outlining interest in engineering, references, or to sit placement tests in mathematics; international applicants should provide recognised proof of English language ability where required.
• Non-traditional applicants: mature students with relevant workplace experience or completed technical diplomas are considered on an individual basis.

Career prospects

Graduates leave prepared for a wide range of technical and professional roles across multiple sectors. The programme emphasises practical skills, systems thinking and design experience valued by employers.

• Typical job roles: electronic design engineer, embedded systems engineer, hardware engineer, test and validation engineer, control systems engineer, telecommunications engineer, power electronics engineer, and systems integrator.
• Sectors: consumer electronics, telecommunications, aerospace and defence, automotive and electric vehicles, renewable energy, industrial automation, medical devices and instrumentation.
• Further study and professional development: many graduates pursue postgraduate degrees (MSc, MEng, or research degrees), professional engineer registration routes, or certifications in specialised tools and platforms.
• Graduate outcomes: the balance of hands-on lab work, team projects and industry links supports employability and access to internships and placement opportunities.

Why study at St. John's University

St. John's offers a professionally oriented engineering education with an emphasis on applied learning. Students benefit from well-equipped electronics and robotics laboratories, access to industry-standard software and test equipment, and teaching staff with research and industrial experience.

• Practical facilities: dedicated labs for analogue/digital circuits, embedded systems, and power electronics allow students to develop build-and-test skills.
• Industry engagement: links with local and regional employers provide opportunities for internships, project collaborations and guest lectures.
• Supportive learning environment: small-group tutorials, design studios and academic support services help students progress from fundamentals to independent design work.
• Pathways beyond graduation: the programme prepares students for employment, further specialist study or professional engineering registration pathways.