Radford University

What you'll study

This undergraduate programme combines the standard physics core with focused study in nuclear and particle physics. You will build a strong grounding in classical mechanics, electromagnetism, quantum mechanics and statistical physics, and then progress to specialised topics such as nuclear structure and reactions, particle physics and detector techniques. Coursework typically includes a sequence of laboratory classes, electronics for physicists, computational physics and data analysis, and culminates in a senior research project or capstone that emphasises experimental or theoretical work in subatomic physics.

• Core topics: Classical Mechanics, Electromagnetism, Quantum Mechanics, Thermodynamics and Statistical Mechanics
• Specialist modules: Nuclear Physics, Particle Physics, Radiation and Detector Physics, Nuclear Decay and Reactions
• Practical and methodological training: Advanced laboratory courses, electronics and instrumentation, radiation measurement techniques, computational methods (numerical modelling and data analysis)
• Capstone and research: Faculty-mentored senior research project, independent experimental investigations, or theoretical/computational studies
• Optional complementary units: Mathematics for physicists (calculus, linear algebra, differential equations), courses in materials science, computational science, or engineering topics depending on student interests

Entry requirements

Admission to Radford University's physics programme follows the university's general undergraduate entry process. Applicants are expected to have a high-school diploma or equivalent with a solid background in mathematics and science. Recommended preparation includes courses in high-school physics, calculus (or equivalent), and strong performance in STEM subjects. Transfer applicants should present college-level coursework in calculus and introductory physics. Prospective students with non-traditional backgrounds are encouraged to contact the department to discuss preparatory options or recommended bridging courses.

Career prospects

Graduates with a physics degree emphasising nuclear and particle physics have diverse career pathways. Many proceed to graduate programmes (master’s and PhD) in physics, nuclear engineering, medical physics or related disciplines. Career options in industry and the public sector include roles at national laboratories, radiation safety and health physics, instrumentation and detector development, accelerator facilities, data analysis and modelling, and technical positions in energy and defence industries. Strong analytical and quantitative skills also lend themselves to careers in finance, software, analytics and education; certification or additional training is typically required for clinical roles such as medical physicist.

Why study at Radford University

Radford offers a learning environment that emphasises undergraduate teaching, small class sizes and opportunities for close faculty mentorship. The physics department supports hands-on learning through laboratory courses and independent research projects, enabling students to gain practical experience with experimental techniques, electronics and data analysis. Students benefit from opportunities to present research, participate in internships or collaborations with regional research organisations, and prepare for graduate study or technical careers. The programme is designed to be flexible so you can combine core physics study with complementary coursework or minors to suit your career goals.