University of Alabama

What you'll study

The programme builds a firm foundation in classical and modern physics before moving into specialised topics in nuclear and particle physics. Early years emphasise calculus-based mechanics, electromagnetism and laboratory skills, while later years focus on quantum mechanics, statistical mechanics, and courses tailored to nuclear and particle phenomena.

• Core theoretical modules: Classical Mechanics, Electromagnetism, Quantum Mechanics I & II, Statistical and Thermal Physics, Mathematical Methods for Physicists.
• Experimental and practical training: Introductory and advanced physics laboratories, electronics for physicists, radiation detection and measurement, instrumentation and data acquisition techniques.
• Specialist nuclear and particle modules: Nuclear Structure and Reactions, Introductory Particle Physics, Nuclear Physics Laboratory, Radiation Physics and Health Physics, Detector Physics and Instrumentation.
• Computational and analytical skills: Computational Physics, numerical methods, and coursework using programming languages and data-analysis tools commonly used in experimental high-energy and nuclear physics.
• Capstone and research: A senior thesis, capstone project or research placement under faculty supervision that typically involves experiment design, data analysis or theoretical modelling. Many students participate in ongoing faculty research groups.
• Electives and breadth: Mathematics courses (e.g. differential equations, linear algebra), electronics, advanced laboratory electives, and options in astrophysics or condensed matter to broaden context.

Entry requirements

Applicants are expected to demonstrate strong attainment in mathematics and physics from their secondary education. Typical academic preparation includes calculus and physics coursework, with strong grades in these subjects.

• For domestic applicants: a high school diploma with strong performance in calculus and physics; colleges and universities often look for competitive overall academic records and preparation for college-level maths.
• For international applicants: equivalent secondary-school qualifications demonstrating competence in mathematics and physics.
• Advanced placement or A-levels (or equivalent) in mathematics and physics are advantageous. Successful applicants often present AP Calculus, AP Physics, A-level Mathematics and A-level Physics, or similar credentials.
• Strong quantitative preparation is more important than particular test scores; applicants should check the University of Alabama admissions pages for current guidance on standardised tests and other requirements.

Career prospects

Graduates with a physics degree emphasizing nuclear and particle physics have a wide range of career paths. The degree provides strong quantitative, experimental and computational skills valued across sectors.

• Further study and research: Many graduates proceed to graduate school in physics, nuclear engineering, medical physics or related disciplines for careers in research and academia.
• National and industrial laboratories: Roles in experimental research, detector development, radiation measurement and instrumentation at government and private labs.
• Energy and medical sectors: Positions in nuclear energy, radiation safety, medical imaging and health physics (often requiring additional certification or training).
• Data and technology roles: Careers in data science, software engineering, modelling and simulation where strong quantitative and programming skills are required.
• Education and outreach: Secondary and tertiary teaching, science communication and outreach work following appropriate certification where required.

Why study at University of Alabama

The University of Alabama offers an undergraduate physics programme with a focus on hands-on laboratory experience and close faculty mentorship. Students benefit from opportunities to join active research projects, develop practical skills with modern instrumentation and computation, and undertake a research-driven capstone experience.

• Accessible faculty and a research-active physics department that supports undergraduate participation in experiments and projects.
• Well-equipped teaching and research laboratories where students learn radiation detection, electronics and data-acquisition techniques essential to nuclear and particle physics.
• Support services such as academic advising, career services and internship guidance to help translate physics training into graduate study and careers in industry, national labs and technology sectors.