Kettering University

What you'll study

This programme builds a foundation in mathematics, physics and engineering principles before advancing to specialised topics in electronics and communications. Early study emphasises calculus, differential equations, circuit analysis and digital logic. Core electrical and electronic modules typically include analogue and digital circuits, semiconductor devices, microcontrollers and embedded systems, signals and systems, and electromagnetics.

• Communications systems: analogue and digital modulation, information theory, wireless communications, network fundamentals and RF concepts.
• Signal processing and control: continuous and discrete signal processing, filters, control theory and applications in feedback systems.
• Power and energy topics: power electronics, electric machines and basic power system concepts relevant to embedded and automotive applications.
• Hands-on laboratory work: practical labs in circuits, microprocessors, communications test equipment and software-defined radio; emphasis on measurement, verification and prototyping.
• Capstone design project: team-based project addressing a real engineering problem, integrating hardware and software with design documentation and presentation.

The curriculum is structured to include multiple design and laboratory courses, programming for engineers, and electives that allow depth in areas such as wireless communications, embedded systems, networked control systems, or RF design. Many students also take courses that align the programme with automotive electronics and industrial controls, reflecting the region’s industry profile.

Entry requirements

Applicants should have completed secondary education with solid preparation in mathematics (including calculus where available) and physics. Typical academic preparation includes courses in algebra, trigonometry, calculus and introductory physics with laboratory experience. Admissions decisions consider overall academic record and coursework in STEM subjects.

• International applicants: must demonstrate equivalent secondary qualifications and meet English language proficiency requirements through recognised tests or institutional pathways.
• Standardised tests: Kettering may consider standardised test scores where applicable; check the university’s admissions guidance for current policies.
• Additional considerations: relevant extracurricular activities, engineering-related projects, internships or work experience can strengthen an application.

Career prospects

Graduates are prepared for roles in telecommunications, consumer and industrial electronics, embedded systems development, test and measurement, automation and control, and automotive electronics. Typical job titles include electronic design engineer, communications engineer, embedded systems engineer, RF engineer, test and validation engineer, systems engineer and applications engineer. Graduates also pursue positions in manufacturing engineering, product development, network engineering and technical consulting.

Many alumni move into industry roles that require practical design and laboratory skills, while others continue to postgraduate study in specialised areas such as communications, signal processing, power electronics or control systems. Kettering’s cooperative education model often leads to paid industry placements and improved employment outcomes upon graduation.

Why study at Kettering University

Kettering is known for its experiential learning model and industry-integrated education. Students benefit from a mandatory cooperative education programme that alternates academic terms with paid work placements in engineering and technology firms, providing substantial hands-on experience and professional networking opportunities.

• Industry connections: strong links with automotive, manufacturing and technology companies provide internship and co-op placements relevant to electronics and communications engineering.
• Small classes and mentoring: relatively small class sizes and close faculty supervision support personalised learning and project-based instruction.
• Applied facilities: access to dedicated electronics, communications and embedded-systems laboratories, prototype workshops and test equipment used in industry.
• Career preparation: integrated professional development, resume and interview training, and alumni networks help transition graduates into engineering careers or further study.

Overall, the programme is suited to students who want a rigorous engineering education with a strong emphasis on practical skills, industry experience and preparation for technical careers in communications and electronics.