Georgia Institute of Technology

What you'll study

The programme builds a solid foundation in core graduate-level physics while allowing specialisation in nuclear and particle physics. Core topics commonly covered include advanced quantum mechanics, statistical mechanics and electrodynamics, together with graduate laboratory and computational methods courses. Specialist modules and research topics typically include:

• Quantum Field Theory and Particle Physics — relativistic quantum mechanics, symmetries, the Standard Model, and phenomenology.
• Nuclear Structure and Reactions — shell model, collective models, reaction theory and nuclear astrophysics topics.
• Detector and Instrumentation Physics — radiation detection, counting statistics, semiconductor and scintillator detectors, and readout electronics.
• Accelerator Physics and Beam Dynamics — basic accelerator concepts and applications for experimental particle and nuclear physics.
• Computational and Data Analysis Methods — numerical techniques, Monte Carlo simulation (e.g. GEANT), and statistical analysis of experimental data.
• Research Seminars and Special Topics — department seminars, journal clubs and advanced topics in neutrino physics, heavy-ion collisions, or beyond-Standard-Model searches, depending on faculty expertise.

Students normally choose between a thesis (research) option — conducting original research under faculty supervision and submitting a written thesis — and a coursework/project option that emphasises additional classes and a fewer-credit research project. The balance between theory and experiment can be tailored through elective choices and research group placement.

Entry requirements

Applicants should hold a bachelor's degree in physics or a closely related field with substantial preparation in core undergraduate physics and mathematics. Typical prerequisite preparation includes classical mechanics, quantum mechanics, electromagnetism, laboratory physics, and mathematics through multivariable calculus, differential equations and linear algebra.

• Academic record: A strong undergraduate record in physics or an equivalent degree. Official transcripts are required.
• Supporting materials: Statement of purpose describing research interests and goals, curriculum vitae, and letters of recommendation from academic or professional referees familiar with the applicant's potential for graduate study.
• Research experience: Prior research experience is strongly valued, particularly for applicants seeking the thesis option.
• English language: International applicants must demonstrate English proficiency through recognised tests unless exempted by institutional policy.

Specific admissions criteria, including any standardised test requirements or minimum grade expectations, are detailed by the School of Physics admissions office and may vary by applicant category.

Career prospects

Graduates of the nuclear and particle physics pathway pursue a wide range of careers in research, industry and public service. Typical directions include:

• Academic and industrial research — progression to PhD programmes or research positions in universities and research institutes working on fundamental or applied problems.
• National laboratories and government research — experimental and computational roles at national labs and government agencies involved in nuclear science, high-energy physics experiments, radiation safety and homeland security applications.
• Nuclear industry and energy — roles in reactor physics, nuclear instrumentation, safety analysis and regulatory bodies.
• Medical physics and healthcare technology — development and application of radiation detectors, imaging systems, and radiation therapy technologies (often requiring further professional certification).
• Data science, software and engineering — careers using strong quantitative and computational skills in sectors such as finance, technology, and engineering firms.

Experience gained through thesis research, collaborations on experimental teams, and internships enhances employability in these sectors.

Why study at Georgia Institute of Technology

Georgia Institute of Technology offers graduate physics training within a research-intensive environment that emphasises interdisciplinary collaboration. The School of Physics hosts faculty working across theoretical and experimental nuclear and particle physics, providing access to active research groups in detector development, accelerator studies and large-scale data analysis.

• Research opportunities: Students can join established experimental collaborations and take part in detector development, accelerator projects or computational particle-physics research.
• Facilities and computing: Access to departmental laboratories, electronics and detector workshops, and campus high-performance computing resources supports both experimental and theoretical work.
• Industry and national-lab links: Proximity to a broad technology ecosystem and established collaborations with national laboratories and industry partners creates opportunities for internships and applied projects.
• Career support: Georgia Tech’s career services and departmental mentoring help students transition to doctoral study, national-lab positions or technical careers in industry.

Together, these strengths make Georgia Tech a strong option for students seeking rigorous training and hands-on research experience in nuclear and particle physics.