Ursinus College

What you'll study

This programme builds a solid core in classical and modern physics while offering specialised coursework and research opportunities in nuclear and particle physics. Early courses cover mechanics, electromagnetism, waves and thermodynamics alongside calculus-based mathematical methods. Intermediate and advanced modules introduce quantum mechanics, statistical mechanics, nuclear physics, particle physics and experimental methods.

• Core physics: Classical mechanics, electrodynamics, optics, thermodynamics and modern physics.
• Mathematics & computation: Calculus, linear algebra, differential equations, numerical methods and scientific computing for data analysis and simulation.
• Advanced topics: Quantum mechanics (multi-level and perturbative methods), nuclear structure and reactions, particle physics (Standard Model concepts, symmetries, and interactions), detector physics and radiation physics.
• Laboratory & instrumentation: Experimental labs emphasising measurement, electronics, radiation detection, data acquisition and uncertainty analysis; hands-on work with spectroscopy, coincidence counting and particle detection techniques.
• Research & capstone: Faculty-mentored independent research projects or a senior thesis in experimental or theoretical nuclear/particle physics, often involving instrumentation, data analysis or computational modelling.
• Electives & interdisciplinary options: Courses in materials science, astrophysics, computational physics, or chemistry to broaden applicability; opportunities to take advanced mathematics or engineering courses.

Small class sizes enable close faculty mentoring and regular presentation of research results. Undergraduate students commonly present at regional meetings and may participate in summer research programmes or internships at nearby universities and national laboratories.

Entry requirements

Applicants are expected to have a strong background in high-school mathematics and physics. Typical preparation includes completed courses in calculus and physics; additional preparation in chemistry and computer science is advantageous. Admissions consider the overall academic record, recommendation letters, and demonstrated interest in scientific inquiry.

Successful candidates are usually comfortable with problem-solving, quantitative reasoning and independent laboratory work. Transfer applicants should provide transcripts showing completion of introductory physics and calculus courses; students without full preparation may be advised to take prerequisite bridging courses.

Career prospects

Graduates with a physics degree focused on nuclear and particle physics pursue a range of careers. Many continue to graduate study (master’s or PhD) in physics, nuclear engineering, medical physics or related disciplines. Others move directly into industry roles that value quantitative and technical skills.

• Research positions at universities, national laboratories and research institutes.
• Instrumentation, detector development and applied physics roles in industry.
• Medical physics and health physics (with further professional training or certification).
• Data science, software development and quantitative analysis roles in finance, technology and engineering firms.
• Secondary-school science teaching (often combined with teacher certification).

The programme’s emphasis on experimental work, data analysis and independent research prepares students for careers that require strong laboratory technique, instrument development and computational skills.

Why study at Ursinus College

Ursinus is a liberal-arts college that emphasises close faculty-student collaboration and undergraduate research. Physics students benefit from small classes, personalized advising and opportunities to carry out mentored projects from early in their studies. The college supports summer research, travel to conferences and student presentations.

Located within reach of major research universities and national labs in the Philadelphia region, Ursinus students can pursue internships and collaborative projects beyond campus. The department’s focus on hands-on laboratory experience, modern instrumentation training and a senior research capstone makes it especially suitable for students aiming for graduate study or technical careers in nuclear and particle physics.