St. John's University

What you'll study

The programme combines the standard core physics curriculum with targeted modules in nuclear and particle physics. You will build solid grounding in classical mechanics, electromagnetism, quantum mechanics and statistical mechanics, alongside the mathematical methods needed for advanced study.

• Core physics courses: Classical Mechanics, Electricity & Magnetism, Quantum Mechanics, Thermodynamics & Statistical Physics.
• Mathematics and computation: Calculus, Linear Algebra, Differential Equations, Mathematical Methods for Physicists, and Computational Physics or numerical methods.
• Nuclear and particle topics: Introductory and advanced Nuclear Physics, Particle Physics and Quantum Field introductory concepts, Nuclear Decay and Reactions, Detector Principles and Radiation Measurement.
• Experimental and laboratory work: Progressive laboratory courses emphasising measurement, error analysis and experiment design; laboratory projects tied to nuclear/particle techniques such as spectroscopy, radiation detection and data acquisition.
• Research and capstone: An independent research project, senior thesis or honours project supervised by faculty, often involving data analysis, experiment design or collaboration with external research facilities.
• Electives and interdisciplinary options: Courses in astrophysics, condensed matter, accelerator physics, electronics for physicists, or applied topics such as medical physics and materials science; opportunities to take mathematics, computer science or engineering electives.

Teaching methods typically include lectures, problem classes, laboratory sessions, and a significant research component. Students are encouraged to take complementary internships or summer research placements to gain practical experience.

Entry requirements

Applicants should have a high school diploma or equivalent with a strong background in mathematics and science. Successful applicants typically have studied algebra, geometry, precalculus or calculus, and high-school physics; chemistry is desirable but not always required.

• Academic preparation: Evidence of strong performance in mathematics and physics courses.
• Supporting materials: Transcripts, a personal statement that outlines interest in physics and research, and one or more academic references are usually required.
• International students: Proof of English language proficiency where applicable and documentation of equivalent qualifications.

Admission is holistic; applicants who have demonstrated enthusiasm for experimental or theoretical physics through projects, summer programmes, or extracurricular activities will be viewed favourably. Prospective students transferring from other institutions should provide college transcripts and course descriptions for transfer credit consideration.

Career prospects

Graduates with a BSc in Physics specialising in Nuclear and Particle Physics are well placed for a range of careers. Many continue to graduate study leading to MSc or PhD programmes in nuclear physics, particle physics, accelerator physics, or related fields. Others move into technical roles in industry and government.

• Research and academia: Doctoral study and research positions at universities and national laboratories.
• Government and national laboratories: Roles in experimental facilities, radiation safety, nuclear instrumentation and reactor-related work.
• Industry and technology: Engineering support, instrumentation, sensor development, software and data analysis in high-tech companies.
• Applied physics professions: Medical physics (with further professional training), materials science, and radiation protection.
• Data-driven careers: Data science, quantitative analysis, finance and software development, leveraging strong quantitative and programming skills.
• Education and communication: Secondary-school physics teaching (with appropriate certification) and science communication roles.

Why study at St. John's University

St. John's University offers a physics programme with personalised attention from faculty, a focus on hands-on laboratory training and opportunities for undergraduate research. The university's location and connections facilitate internships, research collaborations and access to regional research facilities and employers.

• Faculty mentorship: Small class sizes and opportunities to work closely with faculty on research projects and thesis work.
• Practical experience: Emphasis on laboratory skills, instrumentation and computational techniques that prepare students for experimental and applied work.
• Access to internships: Proximity to a large metropolitan area offers a range of internship and employment options in industry, healthcare, and research organisations.
• Supportive environment: Academic advising, career services and alumni networks help students plan for graduate study and employment.

Together these elements provide a route for students who want a rigorous foundation in physics with the specialised knowledge and skills needed to pursue careers or further study in nuclear and particle physics.