University of Utah

What you'll study

The programme builds a broad core in physics and mathematics before offering specialised courses in nuclear and particle physics. You will complete required sequences in classical mechanics, electromagnetism, quantum mechanics and statistical physics alongside calculus, differential equations and linear algebra. Laboratory work and computational physics are integral parts of the curriculum to develop experimental techniques, data analysis and programming skills.

• Core courses: Classical Mechanics, Electricity & Magnetism, Quantum Mechanics, Thermal/Statistical Physics, Experimental Physics Laboratory.
• Mathematics and computation: Calculus I–III, Ordinary Differential Equations, Linear Algebra, Computational Physics or Scientific Programming.
• Nuclear & particle specialisms: Introductory Nuclear Physics, Particle Physics/Elementary Particles, Advanced Topics in Nuclear Structure, Radiation Detection and Instrumentation.
• Electives and interdisciplinary options: Condensed Matter, Astrophysics, Medical Physics, Accelerator Physics, or courses from engineering and computer science relevant to instrumentation and data analysis.
• Capstone / research experience: Many students undertake a senior thesis or join faculty-led research groups to work on experimental or theoretical projects; coursework often culminates in a seminar or senior project demonstrating mastery of key concepts.

Entry requirements

Applicants should present a strong high-school academic record with emphasis on mathematics and sciences. Typical preparation includes completion of advanced secondary-level mathematics (calculus where available) and physics. For applicants from the U.S., a competitive GPA in college-preparatory coursework is expected; international applicants must show the equivalent qualifications.

• Recommended subjects: Physics and Mathematics (calculus), plus one or more laboratory science courses (chemistry or biology).
• Standardised tests / placement: The university may consider standardised test scores or placement results for mathematics sequencing; AP or IB credit in calculus and physics can often place students into advanced courses.
• English proficiency: International applicants whose first language is not English must meet university English-language requirements through recognised tests or prior study in English.
• Other considerations: Successful applicants often demonstrate problem-solving ability, laboratory experience if available, and interest in research through essays or recommendation letters.

Career prospects

Graduates with a physics degree concentrating in nuclear and particle physics have a wide range of career paths. The degree provides strong analytical, quantitative and technical skills valued across sectors.

• Academic and research: Many graduates continue to graduate school (master's or PhD) in physics, nuclear engineering, astrophysics or related fields and pursue careers in university or national laboratory research.
• National labs and government: Opportunities exist in national and regional research facilities, regulatory agencies and defence-related research groups focused on instrumentation, radiation detection and accelerator technology.
• Industry and technology: Roles in semiconductor and materials industries, software and data science, instrumentation manufacturing, and engineering companies that require modelling and experimental expertise.
• Healthcare and applied physics: Pathways into medical physics, radiological sciences, and imaging technologies after additional specialised training or certification.
• Education and outreach: Secondary-school teaching, science communication and public outreach leveraging strong subject-matter knowledge and laboratory experience.

Why study at University of Utah

The University of Utah offers a physics programme with strong research activity and opportunities for undergraduate involvement. The department emphasises close faculty mentorship, hands-on laboratory training and access to computing and experimental facilities that support both theoretical and experimental work.

• Research opportunities: Undergraduates can join faculty research groups or pursue an honours thesis, gaining practical experience in experiments, detector development, simulation and data analysis.
• Facilities and collaborations: Students benefit from departmental laboratories, computing resources and links to broader regional and national research networks, which can support internships and collaborative projects.
• Career support: The university provides advising, career services and connections to industry and research employers in the region, helping students transition to graduate study or technical careers.
• Learning environment: A balance of rigorous coursework, accessible faculty, seminar series and outreach programmes creates an environment supportive of students aiming for advanced study or applied careers in nuclear and particle physics.