Emory University

What you'll study

The curriculum builds from advanced foundations to specialised topics. Typical areas of coursework and training include:

• Core theory: Advanced classical mechanics, quantum mechanics, electrodynamics and statistical physics.
• Nuclear and particle physics: Nuclear structure and reactions, particle phenomenology, and introductory quantum field theory as applied to subatomic systems.
• Experimental methods: Detector principles, radiation measurement, instrumentation, and laboratory techniques for nuclear and high-energy experiments.
• Computational and data methods: Numerical methods, Monte Carlo simulation, data analysis, and programming for large datasets.
• Electives and seminars: Topics such as astrophysical neutrinos, instrumentation design, condensed matter interfaces, and specialised seminars reflecting faculty research.

Students typically combine coursework with an independent research project or thesis carried out with a faculty adviser. Research opportunities include experimental work involving detectors and instrumentation, data analysis from collaborations, and theoretical or computational studies.

Entry requirements

Applicants are normally expected to hold a bachelor’s degree in physics or a closely related physical science or engineering discipline, with strong preparation in calculus, classical mechanics, electricity and magnetism, quantum mechanics and mathematical methods. Competitive applicants demonstrate solid academic performance in undergraduate coursework, practical laboratory experience where available, and proficiency in programming or numerical methods.

Applications should include official transcripts, academic or professional references, and a personal statement describing research interests and career objectives. International applicants must demonstrate English language proficiency according to the university’s requirements. Standardised test requirements (such as the GRE) may vary; prospective students should consult the department’s admissions information for current policies.

Career prospects

Graduates of this programme are prepared for a range of paths. Many continue to doctoral study in physics or related fields; others move into research or technical roles at national laboratories, accelerator and detector facilities, or industry positions involving instrumentation, sensor development, and experimental design. The analytical, computational and data-analysis skills developed in the programme also translate to careers in data science, software engineering, finance, and roles in medical physics and applied research in technology companies.

Why study at Emory University

Emory’s physics department offers personalised mentorship from faculty active in experimental and theoretical nuclear and particle physics, alongside access to laboratory facilities, computational resources and collaborative projects. The university’s location and cross-disciplinary links provide opportunities to work with researchers in related departments and with regional and international research partners. The department emphasises preparing students for research careers through hands-on projects, professional development, and a curriculum that integrates current experimental and theoretical approaches to subatomic physics.