Simmons University

What you'll study

This programme combines the fundamental physics sequence with specialised courses and laboratory work in nuclear and particle physics. You will take broad core modules that build mathematical and experimental foundations, then pursue advanced topics and a capstone research project.

• Core physics sequence: Classical Mechanics, Electricity & Magnetism, Quantum Mechanics, Thermodynamics & Statistical Mechanics.
• Mathematics and computational skills: Mathematical Methods for Physicists, Linear Algebra, Differential Equations and Computational Physics (numerical methods, data analysis, programming in Python or similar).
• Laboratory and practical work: Introductory and advanced physics laboratories emphasising experimental technique, data analysis and instrumentation; electronics for physicists.
• Nuclear and particle physics specialised courses: Introductory Nuclear Physics, Particle Physics and Quantum Field Concepts, Nuclear Instrumentation and Detector Physics.
• Research and capstone: Senior thesis or independent research project in nuclear/particle physics or a related experimental/instrumentation topic, often carried out with faculty or through external collaborations.
• Optional and elective topics: Accelerator Physics, Radiation Physics and Safety, Medical/Applied Nuclear Physics, Astroparticle Physics, and interdisciplinary electives connecting to chemistry, computer science or engineering.

Students typically follow a progression from foundational courses in the first two years to specialised and research-led work in the junior and senior years. Hands-on experience, computational modelling and opportunities for summer research placements or internships are integral to the programme.

Entry requirements

Applicants should hold a secondary school diploma (or international equivalent) with a strong record in mathematics and the physical sciences. Successful candidates normally have taken high-school calculus and physics; coursework in chemistry and computer science is advantageous.

• Academic transcripts showing strong performance in mathematics (calculus) and physics.
• Personal statement explaining interest in physics and any relevant research, laboratory, or extracurricular experience.
• Letters of recommendation from teachers who can comment on quantitative ability and academic potential.
• Standardised tests (SAT/ACT) may be considered according to the university's admissions policies; check current policy for optional testing.
• International applicants must meet English language proficiency requirements and provide certified transcripts and credential evaluations where required.

Because this is a quantitative and laboratory-focused programme, admitted students should be prepared for a curriculum that moves quickly in mathematics and experimental techniques. Placement or introductory courses may be available for students who need to strengthen preparation in calculus or physics.

Career prospects

Graduates with a Physics degree concentrating on Nuclear and Particle Physics have a strong platform for a range of careers. Many continue to graduate study (Master’s and PhD) in nuclear physics, particle physics, astrophysics or applied physics. Others move into:

• Research positions at national laboratories, university research groups, and international collaborations that work on accelerators, detectors and nuclear instrumentation.
• Careers in instrumentation, electronics, and engineering roles that develop and maintain detectors and measurement systems.
• Data science, software development and quantitative analysis roles that value programming, modelling and statistical skills developed in the degree.
• Medical physics and radiation science (often requiring further professional training), and roles in health physics and regulatory agencies dealing with radiation safety.
• STEM education, science policy, and technical consulting where strong communication of complex scientific ideas is required.

The programme’s emphasis on laboratory work, computation and research experience makes graduates attractive to employers in both academia and industry.

Why study at Simmons University

Simmons offers a small‑class, student-centred liberal arts environment with experienced faculty who supervise undergraduate research. The university’s location in the Boston area provides ready access to a dense network of research institutions, universities and technology companies, creating opportunities for internships, collaborative projects and research placements.

• Close faculty mentoring: small group tutorials and accessible faculty support for lab work and independent research.
• Undergraduate research emphasis: structured senior capstones and opportunities to join faculty-led projects in experimental and theoretical topics.
• Connections across Boston’s scientific community: partnerships and informal collaborations with nearby universities and labs that benefit physics students seeking internships or co‑op experiences.
• Support for women in STEM: programmes, mentoring and student organisations aimed at increasing participation and success in physics and related fields.
• Career development: dedicated career services, networking events and preparation for graduate school or industry careers.

Together, these features make Simmons a strong choice for students seeking personalised undergraduate training in nuclear and particle physics within a vibrant regional research ecosystem.