CUNY(The City University of New York)

What you'll study

The programme combines advanced coursework, research rotations and a sustained dissertation project in nuclear and particle physics. Early years focus on core graduate-level topics: quantum mechanics, classical mechanics, statistical mechanics, electrodynamics and mathematical methods for physicists. Students then take specialised courses and seminars in areas such as quantum field theory, particle physics, nuclear structure and reactions, heavy-ion physics, detector instrumentation and computational methods for many-body systems.

• Core coursework: Advanced quantum mechanics, classical field theory, statistical mechanics, electrodynamics and mathematical physics.
• Specialist modules: Quantum field theory, particle physics phenomenology, nuclear physics, relativistic heavy-ion physics, experimental techniques and detector physics.
• Computational & practical training: Numerical methods, data analysis, Monte Carlo techniques, programming for scientific computing, and laboratory/detector commissioning where relevant.
• Seminars and colloquia: Regular department seminars, topical study groups and journal clubs connecting students with current experimental collaborations and theoretical advances.
• Research and dissertation: After passing qualifying/candidacy requirements, students concentrate on an original research project under supervision, culminating in a written dissertation and oral defence.

Research opportunities span both experiment and theory; many students engage with large collaborations or work on detector development, accelerator-based experiments, nuclear theory, or particle phenomenology. Students typically gain hands-on experience with data from accelerators, simulations, and instrumentation projects.

Entry requirements

Applicants are expected to hold a good honours bachelor’s degree in physics or a closely related subject; many successful candidates also hold a master’s degree. Essential background includes undergraduate-level quantum mechanics, classical mechanics, electromagnetism, statistical/thermal physics and competence in mathematics (linear algebra, differential equations, complex analysis) and computing.

• Academic transcripts: Evidence of strong performance in physics and mathematics courses.
• Research experience: Demonstrated interest in research, such as undergraduate or master’s projects, laboratory experience or internships, strengthens an application.
• References: Typically two or three academic referees who can assess research potential and academic preparation.
• Statement of purpose and CV: A clear research statement outlining interests in nuclear and/or particle physics and how they align with faculty expertise.
• English language proficiency: Required for international applicants, demonstrated by an accepted standard test or equivalent evidence where applicable.

Applicants should consult individual CUNY campus or Graduate Center pages for any additional or site-specific requirements. Admissions are competitive and based on the overall strength of academic record, research potential and fit with available supervision.

Career prospects

Graduates of a PhD in Nuclear and Particle Physics pursue a range of careers. Many move into postdoctoral research positions in university departments or national and international laboratories, contributing to experiment or theory programs. Others find roles in accelerator facilities, detector and instrumentation development, and computational science.

• Academic research and teaching: Postdoctoral fellowships, tenure-track faculty positions, and university research staff.
• National and international laboratories: Research scientist roles at laboratories handling accelerators, large collaborations, or nuclear facilities.
• Industry and private sector: Data science, software engineering, quantitative analysis, instrumentation and medical physics companies.
• Government and policy: Scientific advisory roles, research management and technical consultancy for government agencies.
• Technical entrepreneurship: Start-ups or industry positions using skills in modelling, machine learning, and precision instrumentation.

The combination of rigorous analytical training, programming experience and experience with large-scale collaborations prepares graduates for diverse roles that value problem-solving, numerical modelling and experimental design.

Why study at CUNY(The City University of New York)

CUNY offers a PhD environment embedded in a major metropolitan research ecosystem. The university’s campuses and the Graduate Center host faculty working on contemporary problems in nuclear and particle physics, with access to seminar series, cross-campus collaborations and a broad peer community. Proximity to major research hubs and national laboratories offers students opportunities to participate in large experimental collaborations and to gain practical experience on modern detectors and computing infrastructures.

Students benefit from a diverse student body and faculty, opportunities for interdisciplinary work across applied physics, computational science and engineering, and structured support through supervisory committees and teaching/mentoring experience. CUNY’s position within New York City also facilitates connections with nearby universities and research institutes, enhancing networking and professional development opportunities for doctoral students.