New York Institute of Technology

What you'll study

This programme provides a solid grounding in the core areas of physics—classical mechanics, electromagnetism, quantum mechanics and statistical mechanics—followed by targeted courses and laboratory work in nuclear and particle physics. You will develop both theoretical understanding and practical skills in experimental methods, instrumentation and data analysis.

• Core foundational courses: calculus‑based mechanics, electricity and magnetism, modern physics, quantum physics, thermodynamics and statistical physics.
• Laboratory and practical skills: intermediate and advanced physics labs, electronics for physicists, radiation detection and measurement, and computational physics using numerical methods and programming languages commonly used in research (for example Python or MATLAB).
• Specialist nuclear and particle modules: nuclear physics, particle physics and symmetries, nuclear instrumentation, radiation safety and shielding, detector technologies, and topics in accelerator physics.
• Mathematical tools: mathematical methods for physicists, differential equations, linear algebra and probability/statistics for experimental analysis.
• Capstone and research: a senior capstone project or honours thesis involving experimental or theoretical research, often carried out in collaboration with faculty, campus laboratories or external research partners.
• Electives and interdisciplinary options: courses in computational modelling, materials science, medical physics, environmental radiation, or courses from engineering and computer science to broaden skills for applied careers.

Entry requirements

Applicants should hold a secondary school diploma or equivalent with a strong background in mathematics and science. Typical preparedness includes successful completion of calculus (or multivariable calculus preparation), physics and chemistry at the high‑school level.

• Academic preparation: evidence of competence in algebra, trigonometry and single‑variable calculus; introductory physics coursework is strongly recommended.
• Supporting materials: academic transcripts, a personal statement describing interest in physics and career goals, and one or more academic references. Some applicants may be invited to provide examples of prior laboratory or research experience.
• International applicants: proof of English language proficiency where required, and academic credential evaluation if requested.
• Placement and readiness: incoming students may be placed into appropriate mathematics and physics sequences based on diagnostic testing or prior coursework to ensure success in the programme.

Career prospects

Graduates with a physics degree focused on nuclear and particle physics are prepared for a range of careers in research, industry and technical services, as well as further study. The programme emphasises quantitative reasoning, experimental technique and data analysis—skills valued across many sectors.

• Research and academia: progression to graduate study (MSc/PhD) in nuclear physics, particle physics, astrophysics or related areas, leading to roles in university or national laboratory research.
• National laboratories and government agencies: technical and scientific positions in organisations involved with nuclear science, nuclear non‑proliferation, radiation monitoring and particle accelerators.
• Industry and engineering: roles in nuclear power, instrumentation and detector development, medical physics and radiological technology, and companies producing sensors and measurement systems.
• Data and technology sectors: careers in data science, software development for scientific applications, modelling and simulation, where strong quantitative and computational skills are transferable.
• Education and outreach: secondary school teaching or science communication roles, supported by additional certification where required.

Why study at New York Institute of Technology

New York Institute of Technology combines a practice‑oriented approach with opportunities for undergraduate research and close faculty mentorship. The campus environment and its proximity to major research institutions and industry partners provide access to internships, collaborative projects and professional networks relevant to nuclear and particle physics.

• Hands‑on learning: well‑equipped teaching laboratories and computational resources allow students to gain practical experience with detectors, instrumentation and data analysis techniques.
• Research opportunities: faculty‑led research projects and connections with external laboratories and industry enable undergraduates to participate in meaningful experimental or theoretical work as part of their capstone or honours projects.
• Career support: dedicated career services, internship programmes and industry links help students transition into graduate study or technical roles after graduation.
• Interdisciplinary collaboration: opportunities to take elective courses or collaborate with engineering, computer science and health science departments broaden career options and practical skills.