State University of New York

What you'll study

This programme builds core competence in classical mechanics, electromagnetism, quantum mechanics and statistical mechanics in the first years, then moves into specialised nuclear and particle physics topics in later years. You will take a mix of lectures, problem classes and hands-on laboratory courses, with a progressive emphasis on experimental methods, data analysis and computational modelling.

• Core foundational modules: Calculus and differential equations for physicists, introductory and intermediate mechanics, electricity and magnetism, modern physics and introductory quantum mechanics.
• Advanced theoretical modules: Quantum mechanics II, statistical and thermal physics, nuclear physics theory, and particle physics field theory at an undergraduate-appropriate level.
• Experimental and practical modules: Advanced laboratory courses covering detection techniques, radiation measurements, accelerator physics basics, electronics for physics experiments, and uncertainty analysis.
• Computational and data skills: Computational physics, numerical methods, data analysis and simulation using scientific programming languages and tools commonly used in nuclear and particle research.
• Research and capstone: An independent honours project or senior thesis in a research group, often involving experimental work, data analysis from large instruments, or theoretical modelling; opportunities for summer research placements with faculty or partner laboratories.
• Electives: Options typically include medical physics, radiation protection and safety, condensed matter physics, instrumentation, and courses that apply physics to interdisciplinary areas such as materials science and engineering.

Entry requirements

Applicants are expected to have a strong secondary-school record with substantial preparation in mathematics and sciences. Typical preparation includes calculus (or equivalent), physics, and chemistry at an advanced secondary level; students with further mathematics or additional science subjects are well placed to succeed.

• Academic credentials: A competitive secondary-school diploma or international equivalent demonstrating strong achievement in mathematics and physics. Specific required qualifications will depend on the applicant's education system.
• Recommended background: One or more years of high-school calculus and a course in physics; laboratory experience is advantageous.
• Supporting material: Personal statement describing academic interest in nuclear and particle physics, and at least one academic reference. Some campuses or pathways may request standardised test scores or additional documentation for international applicants.
• Additional pathways: Transfer students with relevant college-level coursework in calculus and physics are considered; mature applicants and those with relevant laboratory or technical experience may be eligible through alternative admission routes.

Career prospects

Graduates are well prepared for a variety of careers that require strong analytical, quantitative and technical skills. Many proceed to graduate study (MSc, PhD) in nuclear physics, particle physics, or related areas; others pursue professional training in applied physics fields.

• Research: Student pathways include roles at university research groups, national and regional laboratories, and international collaborations on particle accelerators and detectors.
• Industry and engineering: Opportunities in instrumentation, aerospace, energy, semiconductor and defence industries where measurement, modelling and systems engineering skills are valued.
• Medical and applied physics: Careers in medical physics, radiation protection, medical imaging and health physics, often after additional professional training or certification.
• Data and computation: Roles in data science, software development for scientific computing, and high-performance computing support for large data projects.
• Education and outreach: Secondary and tertiary teaching, science communication and roles in museum or public engagement with science.

Why study at State University of New York

The SUNY system offers access to a broad network of campuses with diverse research strengths and undergraduate teaching traditions. Students benefit from a mix of small-group laboratory instruction and opportunities to join active research groups across the system.

• Collaborative research opportunities: Many SUNY campuses have established collaborations with regional national laboratories and research facilities, providing pathways for undergraduate research projects and summer internships.
• Facilities and resources: Access to modern teaching laboratories, computing resources and specialised instrumentation used in nuclear and particle studies; students can often participate in experimental work or computational projects under faculty supervision.
• Flexible progression: The system supports transfer between campuses and articulation with graduate programmes, making it straightforward for motivated students to pursue advanced degrees or specialist training after the bachelor’s degree.
• Professional preparation: The programme emphasises practical laboratory technique, safety and radiation awareness alongside theoretical training, preparing graduates for technical roles in research, industry and healthcare.