This Bachelor of Science in Physics with a focus on Nuclear and Particle Physics provides a rigorous foundation in classical and modern physics while offering specialised coursework and hands‑on laboratory experience in nuclear and subatomic phenomena. It suits students who enjoy mathematical problem solving, experimental work, and who are aiming for research, technical or further graduate study in fields related to nuclear and particle science.
What you'll study
The programme combines a core physics curriculum with specialised courses and laboratory work in nuclear and particle physics. You will build mathematical and experimental skills through progressive coursework and independent research.
- Core physics: classical mechanics, electromagnetism, introductory and advanced quantum mechanics, and statistical mechanics.
- Mathematics and computation: calculus sequence, linear algebra, differential equations and mathematical methods for physicists, plus computational physics and numerical methods.
- Nuclear and particle topics: introductory nuclear physics, particle physics and detectors, radiation interaction with matter, radiation detection and measurement, and nuclear instrumentation.
- Laboratory work: sequential physics labs that develop experimental technique, data analysis and instrumentation skills; specialised labs in radiation measurement and electronic instrumentation.
- Research and capstone: a senior project or independent research under faculty supervision, often involving experimental design, data collection and scientific communication.
- Electives and interdisciplinary options: courses in materials science, astrophysics, physical chemistry, computer science and applied mathematics to support diverse career paths.
The programme emphasises hands‑on experience: expect small‑group laboratory sessions, opportunities for undergraduate research, and coursework that integrates theory with measurement and data analysis.
Entry requirements
Applicants must hold a recognised secondary school diploma. Successful candidates typically demonstrate strong preparation in mathematics and science, particularly through courses in precalculus or calculus and high school physics.
- Academic preparation: completion of high school mathematics through calculus is highly recommended; prior coursework in physics and chemistry is advantageous.
- Academic record: a competitive academic record in relevant subjects; admissions may consider overall GPA, transcripts and the context of the applicant's school.
- Supporting materials: a personal statement describing interest in physics, letters of recommendation (often from science or mathematics teachers), and any evidence of laboratory, research or computational experience.
- International students: equivalent secondary qualification and proof of English language proficiency where required (for example recognised tests or institutional equivalents).
- Additional considerations: some applicants strengthen their application with summer research, internships, or extracurricular activities demonstrating sustained interest in physics and quantitative problem solving.
Career prospects
Graduates with a physics major concentrating in nuclear and particle physics are prepared for both immediate employment and further study. Common career paths include:
- Graduate research and academia: many students continue to MSc or PhD programmes in physics, nuclear engineering, or related fields for careers in research and teaching.
- National and private research laboratories: roles as research assistants, technicians or early‑career scientists in national labs, university labs and industry research groups focused on instrumentation, materials and radiation science.
- Medical and health physics: with further professional training or certification, graduates can move into medical physics, radiation therapy physics, or health‑physics roles supporting radiation protection and safety.
- Engineering and technical careers: opportunities in instrumentation, electronics, radiation detection, and applied physics roles within energy, aerospace and manufacturing sectors.
- Data science and quantitative roles: strong analytical and computational skills enable careers in data analysis, software development, finance and consulting.
The programme’s emphasis on laboratory skills, instrumentation and independent research makes graduates attractive to employers who need technically proficient problem solvers.
Why study at Chatham University
Chatham University offers a personalised undergraduate experience with small class sizes and accessible faculty mentoring, allowing students to pursue substantive undergraduate research in physics. The university’s liberal arts environment supports interdisciplinary study—useful for students combining physics with chemistry, mathematics, computer science or environmental studies.
Located in the Pittsburgh region, students benefit from proximity to a strong scientific and industrial community, which creates opportunities for internships, adjunct research collaborations and access to additional laboratory resources. Chatham emphasises experiential learning: students typically engage in hands‑on labs, senior research projects and internships that prepare them for graduate study and technical careers.
Faculty in the physics programme focus on undergraduate teaching and mentorship, guiding students through capstone research, conference presentations and preparation for postgraduate applications or professional employment.
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