University of Texas

What you'll study

The programme combines core physics training with specialised modules in nuclear and particle physics. Core topics include classical mechanics, electromagnetism, quantum mechanics, statistical mechanics and mathematical methods for physicists. Specialised courses cover nuclear structure and reactions, particle physics and field theory, detector instrumentation and radiation interactions with matter. Students also take laboratory courses that develop experimental techniques, data acquisition and analysis, and computational physics using modern programming and simulation tools.

• Core modules: Classical Mechanics, Electromagnetism, Quantum Mechanics I–II, Thermal and Statistical Physics, Mathematical Methods for Physicists, Advanced Laboratory.
• Specialist modules: Introduction to Nuclear Physics, Nuclear Structure and Reactions, Particle Physics and the Standard Model, Introductory Quantum Field Theory, Radiation Detection and Measurement, Accelerator and Detector Physics.
• Skills and methods: Experimental design, error analysis, detector electronics, Monte Carlo simulation (e.g. GEANT), data analysis with Python, MATLAB or ROOT, and scientific communication.
• Research and capstone: Options for supervised undergraduate research projects with faculty in experimental or theoretical groups, senior thesis or capstone laboratory projects, and summer research placements with campus groups or partner national laboratories.

Entry requirements

Applicants should demonstrate strong achievement in secondary-level mathematics (calculus) and physics. Typical successful applicants have high grades in science and mathematics subjects and evidence of analytical ability. Admissions will consider the overall academic record, relevant coursework, and any laboratory or research experience. International applicants are expected to have equivalent preparatory qualifications. Prospective students who lack formal physics preparation are encouraged to take preparatory mathematics and physics courses before or in the first year.

Career prospects

Graduates with a physics degree focused on nuclear and particle physics are well positioned for a range of careers. Many proceed to graduate school (MSc/PhD) in physics, nuclear engineering or related fields and join academic or government research programmes. Other common pathways include technical roles in national laboratories, accelerator and detector development, radiation safety and medical physics, instrumentation and electronics, data science and software development, and engineering sectors. Skills in quantitative problem solving, experimental technique and computational analysis are also valued in finance, consulting and technology companies. Undergraduate research experience and internships significantly enhance employability.

Why study at University of Texas

The University of Texas offers a physics department with active research groups in both experimental and theoretical nuclear and particle physics, providing undergraduates with access to cutting‑edge projects and faculty mentorship. Students can contribute to collaborations that partner with national and international facilities, gain hands‑on experience with modern detectors and accelerators, and use dedicated computational resources for large‑scale data analysis. The department emphasises undergraduate research, mentorship, and opportunities for internships at nearby national laboratories and industry partners, supporting a clear progression to advanced study or technical careers.