Troy University

What you'll study

The degree builds a solid core in mechanics, electromagnetism, optics, thermodynamics and quantum mechanics, then progresses into specialised topics relevant to nuclear and particle physics. Course work emphasises a balance of theory, laboratory experience and computational methods.

• Core physics modules: Classical Mechanics, Electricity and Magnetism, Modern Physics, Quantum Mechanics, Statistical Mechanics and Thermodynamics.
• Mathematics and computation: Calculus sequence, Differential Equations, Linear Algebra, Mathematical Methods for Physicists, and Computational Physics or scientific programming courses supporting data analysis and numerical modelling.
• Experimental and laboratory work: Physics Lab I & II, Advanced Experimental Techniques, Electronics for Physicists and Instrumentation courses providing hands-on experience with detectors, data acquisition and uncertainty analysis.
• Specialist nuclear and particle topics: Nuclear Physics, Radiation Physics and Detection, Particle Physics/Introduction to High-Energy Physics, and courses covering radioactive decay, nuclear structure, scattering theory and detector technologies.
• Research and capstone: Senior Seminar/Capstone Project or Research Practicum where students undertake an independent or faculty-mentored experimental or theoretical project, often involving data analysis, simulations or small-scale experiments.
• Electives and interdisciplinary options: Applied optics, condensed matter topics, materials science, advanced laboratory electives, and courses in applied mathematics, computer science or engineering to tailor the degree to careers in instrumentation, modelling or applied research.

Entry requirements

Applicants are normally expected to hold a high school diploma or equivalent with strong preparation in mathematics and science. Successful applicants typically have studied algebra, geometry, trigonometry and calculus (or are prepared to take first-year calculus), and have a background in high school physics or chemistry.

• Typical academic profile: multiple years of mathematics, including precalculus/calculus, and at least one year of high school laboratory science.
• Standardised tests: Troy University follows current institutional policies regarding SAT/ACT submission; consult the admissions office for current requirements.
• International applicants: proof of English proficiency through recognised tests unless exempt; submission of comparable secondary qualifications and transcripts.
• Additional notes: transfer students are considered with evaluation of prior college coursework in mathematics and physics; students without calculus readiness are usually placed into preparatory courses.

Career prospects

Graduates with a BSc in Physics concentrating in Nuclear and Particle Physics move into a range of technical and professional roles. Many continue to postgraduate study (master’s or PhD) in physics, nuclear engineering, medical physics or related disciplines; others enter industry directly.

• Research and technical roles: research assistant or technician positions in university labs, national laboratories, and private-sector research groups working on instrumentation, detector systems and data analysis.
• Energy and nuclear industry: roles in nuclear power, radiation protection, health physics, and regulatory or plant support positions where knowledge of radiation and detection is essential.
• Engineering and applied science: careers in systems engineering, instrumentation, aerospace and defence sectors that value strong analytical and quantitative skills.
• Data and computational careers: data analyst, modelling specialist or software developer roles driven by experience in numerical methods and scientific computing.
• Education and outreach: secondary school teaching (with appropriate certification), museum or public outreach roles communicating science to the public.

Why study at Troy University

Troy University offers a personalised undergraduate experience with small class sizes and close faculty supervision, making it suitable for students who want hands-on laboratory training and mentoring. The physics programme emphasises undergraduate research and practical skills — students can work directly with faculty on experiments, use departmental instrumentation and develop computational proficiency.

• Accessible faculty mentorship: opportunities for one-to-one guidance on research projects, capstones and career planning.
• Practical training: laboratory-focused teaching, electronics and instrumentation coursework, and projects that build skills sought by employers and graduate programmes.
• Preparation for next steps: a curriculum designed to prepare students for graduate study in physics and related fields, as well as for technical roles in industry and government.
• Campus resources and student life: opportunities to join physics and STEM student organisations, present research at symposia, and access university career services for internships and job placement support.