Emory University

What you'll study

The programme covers the standard sequence of physics and supporting mathematics, together with specialised topics relevant to nuclear and particle physics. Typical components include:

• Foundational courses: classical mechanics, electromagnetism, thermodynamics and statistical mechanics, and quantum mechanics.
• Mathematical and computational tools: calculus, linear algebra, differential equations, mathematical methods for physicists, and computational physics or scientific programming.
• Nuclear and particle physics: introductory and advanced courses in nuclear physics, particle/elementary-particle physics, nuclear instrumentation and detector physics, and accelerator physics.
• Laboratory and experimental training: modern physics lab, advanced laboratory courses emphasising measurement techniques, data analysis and instrumentation, and opportunities to work with particle detectors and radiation measurement equipment.
• Research and capstone: supervised undergraduate research projects, often leading to a senior thesis or presentation; students may join faculty research groups in experimental nuclear/particle physics or related areas.
• Electives and interdisciplinary options: courses in astrophysics, condensed matter, materials science, biophysics, and computer science to tailor the degree to individual interests.

Entry requirements

Admission to Emory is competitive. Applicants for the physics major should present a strong secondary-school record with substantial preparation in mathematics and science. Recommendations and a personal statement that indicate intellectual curiosity and readiness for a rigorous STEM programme are important. Prospective students are encouraged to have completed high-school calculus and physics where possible; additional coursework in computer science or advanced mathematics is beneficial. Consult Emory's admissions resources for the university-wide application process and any test score policies.

Career prospects

Graduates with a physics degree specialising in nuclear and particle physics pursue a range of careers. Common paths include:

• Further study at the graduate level (PhD or MSc) in physics, nuclear engineering or related fields for careers in research and academia.
• Positions in national laboratories and research institutes working on experimental nuclear and particle projects, detector development or accelerator operations.
• Industry roles in instrumentation, radiation safety, medical physics (often requiring additional professional training), and applied research.
• Data science, software development, quantitative analysis and finance, where strong mathematical and computational skills are valued.
• Teaching at secondary or post-secondary levels after appropriate certification or further qualifications.

Why study at Emory University

Emory offers small classes and close faculty mentorship within a research-active department, enabling undergraduates to join laboratory groups and undertake independent projects. The university’s location in Atlanta provides access to regional research collaborations and nearby institutions, and students benefit from interdisciplinary opportunities across the sciences. Emory emphasises experiential learning, with laboratory courses, research placements and capstone projects that give practical experience in instrumentation, data analysis and experimental design relevant to nuclear and particle physics.