Florida International University

What you'll study

The programme blends core graduate physics courses with specialised modules in nuclear and particle physics and significant laboratory or computational research. Students take advanced courses that deepen understanding of quantum mechanics, statistical mechanics and electrodynamics, then move into specialist topics and practical training specific to subatomic physics.

• Core and advanced theory: Advanced Quantum Mechanics, Introduction to Quantum Field Theory, Relativistic Quantum Mechanics, and Statistical and Thermal Physics.
• Nuclear and particle topics: Nuclear Structure and Reactions, Experimental Particle Physics, Particle Phenomenology, and Topics in High Energy Physics.
• Experimental and instrumentation training: Radiation Detection and Measurement, Detector Design and Electronics, Accelerator Physics basics, and Laboratory Techniques for Nuclear/Particle Experiments.
• Computation and data analysis: Computational Physics, Monte Carlo Methods for Detector Simulation, and Data Analysis for Large Collaborations (including familiarity with common analysis frameworks and languages).
• Research project: Students complete a substantial research component, typically a thesis or a project-led equivalent, carried out under the supervision of a faculty member. Projects often involve detector development, data analysis for collider or neutrino experiments, or applied nuclear measurements.

Courses are supplemented by seminars and opportunities to collaborate with faculty on ongoing experimental and theoretical research. There is flexibility to follow a thesis route (recommended for those aiming at PhD study) or a coursework/project track geared towards professional practice.

Entry requirements

Applicants are expected to hold a bachelor’s degree in physics or a closely related physical science or engineering discipline. Successful applicants typically have undergraduate coursework in classical mechanics, electromagnetism, quantum mechanics, laboratory physics and mathematics (calculus, differential equations, linear algebra).

• Academic transcript: Official transcripts showing a solid foundation in undergraduate physics and mathematics.
• Supporting documents: A statement of purpose describing research interests and career goals, a current résumé/CV, and at least two letters of recommendation from academic or professional referees.
• Research experience: Prior laboratory or computational research is advantageous, especially for applicants seeking the thesis option.
• English language proficiency: International applicants must demonstrate English proficiency through recognised tests or approved institutional pathways where applicable.
• Additional requirements: Some applicants may be asked to provide a writing sample, samples of computational work, or to participate in an interview. Specific departmental guidance should be consulted for any programme-specific prerequisites or expectations.

Career prospects

Graduates of this programme move into a variety of research and technical roles. Typical career paths include:

• Doctoral research in nuclear, particle or accelerator physics and related theoretical fields.
• Positions at national laboratories and research facilities working on accelerators, detector development, radiation measurement and experimental collaborations.
• Roles in medical physics, radiation safety, and nuclear instrumentation within healthcare and industry (additional certification may be required for clinical positions).
• Data science, software development and computational modelling roles that draw on statistical analysis and programming skills developed during the programme.
• Engineering and technical positions in companies that build scientific instrumentation, radiation detectors or advanced electronics.
• Teaching and outreach roles in higher education and science communication.

Why study at Florida International University

Florida International University offers a research-active physics department with faculty working across theoretical and experimental nuclear and particle physics. Students benefit from small-group mentorship, access to on-campus laboratories and computing resources, and a collaborative environment that connects graduate students to faculty-led projects.

The university’s location in the Miami metropolitan area provides proximity to regional research partners and industry, and the department maintains links with national and international laboratories and experimental collaborations, facilitating internships and research placements. FIU also emphasises professional development, preparing students for both continued academic study and technical careers through transferable skills training in programming, instrumentation and data analysis.