Georgia Institute of Technology

What you'll study

The Physics degree covers core physics principles and mathematical methods, with specialised courses and laboratory experience focused on nuclear and particle physics. The curriculum combines classroom instruction, hands-on experiments, computational training and opportunities for undergraduate research.

• Core physics sequence: classical mechanics, electromagnetism, quantum mechanics and statistical physics, taught at progressively advanced levels.
• Mathematical and computational training: multivariable calculus, differential equations, linear algebra, numerical methods and programming for data analysis and simulation.
• Specialist nuclear and particle modules: introductory and advanced nuclear physics (nuclear structure, reactions, decay), particle physics (symmetries, the Standard Model, experimental methods), and courses on radiation physics and detection techniques.
• Laboratory and instrumentation work: modern experimental labs covering radiation detection, spectroscopy, accelerator basics, instrumentation, and measurement uncertainty.
• Research and capstone: options for supervised undergraduate research in faculty laboratories, senior thesis or project-based courses that connect theory with experimental or computational investigations.
• Electives: astrophysics, condensed matter, accelerator physics, medical physics, and cross-disciplinary courses in electrical engineering, materials, or computer science to broaden technical skills.

Entry requirements

Admission to Georgia Tech is competitive and emphasises strong preparation in STEM subjects. Prospective candidates should demonstrate proficiency in mathematics and physics and a record of high academic achievement at secondary level.

• Academic background: secondary qualifications with strong grades in mathematics and physics (for example A-levels, IB, or equivalent). Calculus and advanced mathematics preparation is highly recommended.
• Recommended subjects and preparation: calculus, physics, and laboratory experience. Additional preparation in computer science or chemistry is advantageous.
• Standardised tests and other materials: submission of standardised test scores and application materials follows institutional policy; applicants should consult Georgia Tech admissions for current requirements. Personal statements, letters of recommendation and evidence of extracurricular engagement in STEM or research strengthen applications.
• Transfer and non-traditional applicants: applicants with prior college coursework should present official transcripts and course descriptions; articulation of equivalent calculus and physics courses will be reviewed.

Career prospects

Graduates with a nuclear and particle physics focus have a wide range of career paths available, both inside and outside academia. The programme equips students with quantitative, experimental and computational skills that are sought after across many sectors.

• Research and academia: roles in university research groups or further graduate study (PhD) in experimental or theoretical nuclear and particle physics.
• National laboratories and large-scale facilities: technical and scientific positions at government and national research laboratories, accelerator facilities and detector development groups.
• Medical and health physics: careers in medical imaging, radiation therapy, health physics and regulatory science.
• Industry and engineering: roles in instrumentation, semiconductors, aerospace, energy and materials, where measurement and data-analysis skills are valuable.
• Data science, software and finance: data analysis, modelling and computational roles that leverage strong quantitative training.
• Teaching and outreach: secondary and tertiary education roles, science communication and public engagement.

Why study at Georgia Institute of Technology

Georgia Tech’s School of Physics offers a robust mix of theory and experimental training within a research-intensive environment. The department hosts faculty active in nuclear and particle physics research and provides multiple pathways for students to engage in cutting-edge projects.

• Undergraduate research opportunities: strong emphasis on undergraduate participation in faculty-led research, internships and collaborations with external research organisations.
• Interdisciplinary environment: close links with engineering, computing and materials science departments enable access to complementary skills and facilities.
• Facilities and technical training: modern teaching laboratories, computing resources and opportunities to gain experience with experimental instrumentation and data acquisition.
• Career support: institutional career services, industry partnerships and alumni networks that help students secure internships and employment in research, industry and beyond.