Kettering University

What you'll study

This programme covers the fundamentals of classical and modern physics with specialised coursework and laboratory experiences in nuclear and particle physics. Core modules typically include classical mechanics, electromagnetism, quantum mechanics, statistical mechanics, mathematical methods for physicists and computational physics. Specialized courses concentrate on nuclear structure and reactions, radiation detection and measurement, particle physics and accelerator physics, as well as radiation safety and instrumentation.

• Laboratory and practical work: hands‑on experiments in instrumentation, detector operation, radiation measurement and data acquisition.
• Computational skills: numerical methods, data analysis, simulation of particle interactions and use of scientific programming languages and tools.
• Research and capstone: independent research projects or senior design culminating in a thesis or technical report, often conducted in collaboration with faculty or industrial partners.
• Co‑operative education: alternating academic terms with paid co‑op placements or internships in industry, national laboratories or research facilities to apply theory in professional settings.

Entry requirements

Applicants are expected to have a strong background in mathematics and physics from secondary education. Typical preparation includes calculus (or readiness to begin calculus), algebra, and introductory physics with laboratory experience. Admissions consider academic transcripts, recommendation letters and a demonstrated interest in experimental and theoretical physics. International applicants should present the equivalent preparation in science and mathematics and meet the university's language proficiency requirements.

Career prospects

Graduates are prepared for technical and research roles in a variety of sectors. Common career paths include positions at national laboratories, nuclear power and energy companies, medical physics and radiation diagnostics, instrumentation and detector development, aerospace and defence, and data science roles that leverage strong analytical skills. Many graduates also progress to postgraduate studies (master's or PhD) in physics, nuclear engineering, medical physics or related fields, or pursue professional roles that combine physics knowledge with engineering or computational expertise.

Why study at Kettering University

Kettering emphasises experiential learning and strong industry engagement. The university's cooperative education model provides multiple paid work terms that allow students to gain workplace experience in research labs, industry facilities or regulatory organisations. Small class sizes enable close faculty mentorship and involvement in research projects. On‑campus laboratories, access to specialised instrumentation and partnerships with regional industries and national laboratories help translate academic study into practical skills sought by employers and graduate programmes.