Presbyterian College

What you'll study

The programme builds from introductory mechanics, electromagnetism and modern physics through intermediate courses in classical mechanics, electrodynamics and thermal/ statistical physics, to advanced topics that support a concentration in nuclear and particle physics.

• Core courses: calculus-based introductory physics, classical mechanics, electrodynamics, modern physics, laboratory methods and scientific computing.
• Mathematics support: calculus sequence, linear algebra, and differential equations to provide the mathematical tools used across nuclear and particle theory and data analysis.
• Advanced physics: quantum mechanics, statistical mechanics, and advanced laboratory courses that introduce experimental design, data acquisition and uncertainty analysis.
• Nuclear and particle specialisms: courses covering nuclear structure, radioactivity, detector physics, particle physics phenomenology, interactions and symmetries, and experimental techniques used in accelerators and detectors.
• Computational and instrumentation training: numerical methods, programming for physicists, electronics and instrumentation labs to prepare students for experimental and computational research.
• Capstone and research: a senior research project or thesis under faculty supervision is a central element, enabling hands-on experience with experimental apparatus, data analysis or theoretical modelling relevant to nuclear and particle physics.
• Electives and cross-disciplinary options: students may take complementary courses in chemistry, materials science, mathematics, or computer science to broaden career and research preparation.

Entry requirements

Applicants should hold a high school diploma or equivalent with a strong background in mathematics (including algebra and pre-calculus, with calculus preferred) and physics. Successful candidates typically have taken college-preparatory mathematics and laboratory science courses.

• Academic preparation: prior coursework in physics and calculus is strongly recommended; AP or IB credits in these subjects are advantageous where applicable.
• Application materials: a completed undergraduate application, high school transcripts, and academic references or letters of recommendation are normally required. A personal statement describing interest in physics and research experience is helpful.
• International applicants: proof of English language proficiency may be required through recognised tests or equivalent documentation.
• Placement and bridging: incoming students who need to strengthen their mathematics or physics preparation can often access summer courses, tutoring, or first-year support to ensure readiness for major courses.

Career prospects

Graduates with a physics degree emphasising nuclear and particle physics have versatile skills valued across many sectors. The programme prepares students for both immediate employment and for graduate study.

• Graduate study and research: many alumni progress to master’s or doctoral programmes in physics, nuclear engineering, materials science or related fields to pursue research careers.
• National laboratories and research facilities: students are prepared for technical roles in government and national labs, including experimental support, instrumentation, detector development and data analysis.
• Industry and technology: roles in electronics, medical physics, radiation safety, aerospace, and high-tech companies make use of the analytical and experimental training provided by the degree.
• Data and computational careers: strong quantitative and programming skills enable entry into data science, modelling, and software development positions.
• Education and outreach: graduates may pursue secondary teaching credentials or roles in science communication and museum or public outreach programmes.

Why study at Presbyterian College

Presbyterian College offers a small liberal arts environment with close faculty mentoring and a strong emphasis on undergraduate research. Physics students benefit from hands-on laboratory experiences, opportunities to undertake independent research projects with faculty, and personalised advising to prepare for graduate study or technical careers.

• Close mentoring: small class sizes encourage direct interaction with faculty and tailored guidance on research and career planning.
• Research opportunities: undergraduates can participate in faculty-led projects, develop senior theses and gain experience with experimental apparatus, data analysis and scientific communication.
• Co-curricular activities: physics clubs, seminars and guest lectures connect students with professional networks, internships and experiential learning opportunities.
• Preparation for next steps: the curriculum is designed to provide the foundational knowledge and skills needed for graduate study, laboratory work, technical employment or teaching careers.