University of Memphis

What you'll study

The curriculum builds a strong foundation in classical and modern physics before moving into specialised topics in nuclear and particle physics. You will study theoretical principles, practical laboratory techniques and computational methods used to model and analyse subatomic systems.

• Core physics and maths: Classical Mechanics, Electromagnetism, Quantum Mechanics, Thermal & Statistical Physics, Mathematical Methods for Physicists.
• Laboratory and experimental skills: Introductory and advanced experimental physics labs, electronics for physicists, instrumentation and measurement techniques, data acquisition and error analysis.
• Nuclear and particle modules: Nuclear Physics covering nuclear structure and reactions, Particle Physics introducing the Standard Model and particle interactions, Radiation Detection and Instrumentation focusing on detectors, spectroscopy and counting techniques.
• Computational training: Computational Physics and numerical methods, programming for data analysis, Monte Carlo techniques commonly used in detector simulation.
• Capstone and research: Senior seminar or capstone project, opportunities for supervised undergraduate research in topics such as detector development, nuclear experiment analysis or particle phenomenology.
• Supplementary options: Electronics, materials science electives, mathematics electives, and interdisciplinary courses in medical physics or radiation safety where available.

Entry requirements

Applicants should hold a recognised secondary-school diploma with strong preparation in mathematics and science. Typical preparation includes completion of calculus and high-school physics; chemistry is recommended. Admissions decisions take a holistic view of secondary-school grades, coursework rigor, and supporting documents such as a personal statement and letters of recommendation.

Transfer applicants are considered on the basis of college transcripts and completed coursework in calculus and introductory physics. International applicants must demonstrate English proficiency through recognised tests or approved institutional alternatives. Placement testing or diagnostic assessments in mathematics may be used to determine the appropriate first-year courses.

Career prospects

Graduates are well prepared for a variety of pathways. Many continue to graduate study in physics, nuclear engineering, medical physics or related disciplines. Others move into technical roles that apply their analytical and experimental skills.

• Research careers at universities, national or regional laboratories, and in experimental collaborations.
• Technical and engineering roles in instrumentation, radiation detection, accelerator facilities and semiconductor industries.
• Applied careers in healthcare (medical physics, imaging), nuclear power and radiation safety/regulation.
• Data science, software development and quantitative roles in finance or technology, leveraging strong computational and modelling experience.
• Secondary-school teaching and science communication, often pursued with additional certification.

Why study at University of Memphis

The University of Memphis offers personalised mentoring with faculty in a department that emphasises hands-on laboratory experience and undergraduate research. Students benefit from modern teaching laboratories, coursework that integrates experimental and computational approaches, and opportunities to carry out mentored projects that build practical skills in instrumentation and data analysis.

The programme prepares students both for immediate technical employment and for competitive entry to graduate programmes. Support services including academic advising, career services and links to local industries and research environments help students secure internships and postgraduation opportunities. Small class sizes and accessible faculty make the University of Memphis a suitable place for students seeking a solid physics education with a clear route into nuclear and particle physics specialisation.