Georgetown University

What you'll study

The programme builds a solid core in classical and modern physics while allowing specialist study in nuclear and particle physics. Early years emphasise mechanics, electromagnetism, waves and optics, and introductory laboratory work, alongside a rigorous mathematics sequence (calculus, differential equations and linear algebra).

In later years students take intermediate and advanced courses such as quantum mechanics, statistical mechanics, and electrodynamics, together with dedicated nuclear and particle physics modules covering nuclear structure, nuclear reactions, particle phenomenology, the Standard Model, and experimental methods in high‑energy physics.

Practical training is provided through progressive laboratory courses, electronics and instrumentation classes, and computational physics using programming languages and numerical methods. Many students undertake a substantial capstone experience—such as an honours thesis or independent research project—working directly with faculty on experimental or theoretical problems in nuclear or particle physics.

• Introductory Physics I & II (mechanics; electricity and magnetism)
• Calculus and Mathematical Methods for Physicists
• Modern Physics and Quantum Mechanics
• Thermal and Statistical Physics
• Advanced Quantum Theory and Particle Physics
• Nuclear Physics and Nuclear Instrumentation
• Experimental Methods, Detector Physics and Data Analysis
• Computational Physics and Numerical Modelling
• Senior Thesis / Independent Research Project

Entry requirements

Applicants are expected to demonstrate strong academic preparation in mathematics and science. Typical incoming students will have completed high school calculus and physics; additional coursework in chemistry and advanced mathematics is advantageous. Admissions are selective and consider a combination of academic record, teacher recommendations, personal statement, and evidence of quantitative ability.

International applicants must present equivalent secondary qualifications and proof of English language proficiency where required. Transfer students are evaluated on university performance and the compatibility of prior coursework with the Georgetown physics curriculum. Prospective students with research experience, laboratory internships or relevant extracurricular achievements are particularly competitive.

Career prospects

Graduates with a concentration in nuclear and particle physics pursue a wide range of careers. Many continue to graduate study in experimental or theoretical physics, nuclear engineering, or related fields. Career paths include positions at national laboratories, accelerator and detector facilities, and university research groups.

Other common outcomes draw on the programme's strong quantitative and problem‑solving training: roles in medical physics and radiation science, engineering, data science and analytics, software development, finance, consulting, technical policy and science communication. The programme’s emphasis on laboratory skills and computation also prepares graduates for technical roles in industry and government agencies.

Why study at Georgetown University

Georgetown offers a liberal‑arts approach to physics within a research‑active environment, enabling close faculty mentorship and opportunities for early involvement in research projects. Its location in Washington, D.C. provides access to a broad network of research institutions, government agencies, think tanks and industry partners for internships and collaborations.

The university emphasises interdisciplinary study and ethical reflection, allowing students to combine physics with complementary fields such as computer science, mathematics, public policy or philosophy. Small class sizes in upper‑division courses and a strong advising system help students tailor the curriculum to their interests in nuclear and particle physics and prepare for graduate study or diverse professional careers.