Rochester Institute of Technology

What you'll study

The programme builds core competence in classical and modern physics and then applies those foundations to nuclear and particle topics. Early years emphasise calculus‑based mechanics, electromagnetism, waves, modern physics and laboratory skills. As you progress you will study quantum mechanics, statistical mechanics, and advanced electromagnetism alongside focused modules in nuclear and particle physics.

• Core theory: classical mechanics, electromagnetism, quantum mechanics, statistical and thermal physics.
• Specialist topics: nuclear structure and reactions, particle physics and the Standard Model, radiation interactions with matter, detector physics and accelerator physics concepts.
• Experimental and practical work: multi‑term physics laboratories, instrumentation and electronic measurement, radiation detection and spectroscopy, hands‑on labs with detector systems and data acquisition.
• Computation and data analysis: numerical methods for physics, scientific programming, Monte Carlo techniques commonly used in particle and nuclear simulations.
• Capstone and research: an upper‑level senior project or honours thesis, often undertaken as part of an undergraduate research group or in collaboration with faculty, national laboratories or industry partners.

Students may personalise their degree with electives in applied physics, materials, electronics, or computer science, and are encouraged to take advantage of interdisciplinary opportunities within RIT’s science and engineering programmes.

Entry requirements

Applicants should have completed a secondary school programme with strong preparation in mathematics and physics. Typical expectations include:

• A solid background in calculus and algebra; A‑level applicants are normally expected to hold Mathematics and Physics at advanced levels or equivalent qualifications.
• Evidence of problem‑solving ability and prior experience with laboratory work is beneficial.
• Standardised test scores (where required by the admissions office) and academic transcripts will be reviewed; international qualifications are considered on an equivalent basis.
• Applicants without traditional qualifications who demonstrate academic readiness through college coursework or relevant experience may be considered.

Prospective students are encouraged to consult RIT’s admissions guidance for precise, up‑to‑date entry requirements and advice on preparatory courses such as multivariable calculus and introductory differential equations.

Career prospects

Graduates with a physics degree concentrating on nuclear and particle physics pursue a wide range of careers. Common pathways include:

• Research roles at university groups, national laboratories and accelerator facilities focusing on nuclear science, particle physics and detector development.
• Instrumentation and detector engineering in industries that design radiation detectors, imaging systems and sensors.
• Medical and health physics roles (often requiring further professional training or postgraduate study) in hospitals, radiotherapy centres and regulatory bodies.
• Radiation safety, environmental monitoring and regulatory compliance positions within government and industry.
• Data science, software development and quantitative roles that leverage strong computational and analytical skills developed in the programme.
• Further study at graduate level (MS/PhD) in nuclear physics, particle physics, medical physics, nuclear engineering or related fields.

Why study at Rochester Institute of Technology

RIT offers a hands‑on, career‑focused education with small class sizes and extensive laboratory training. The university emphasises experiential learning through cooperative education placements and undergraduate research, giving physics students real‑world experience with instrumentation, data acquisition and collaborative projects.

Within RIT’s College of Science and the School of Physics and Astronomy, students benefit from close faculty mentoring and interdisciplinary connections to engineering, imaging science and computing departments. Strong industry links and an active co‑op programme help students develop professional networks and practical skills valued by employers and graduate programmes. The programme’s combination of theory, laboratory work and computational training prepares graduates for both immediate employment and continued academic study in nuclear and particle physics and related disciplines.