University of Missouri

What you'll study

The programme builds a strong foundation in classical mechanics, electromagnetism, thermodynamics and modern physics before moving into specialised courses in quantum mechanics, nuclear physics and particle physics. You will study both theoretical concepts and practical techniques used to investigate nuclear and subatomic systems.

• Core physics sequence: introductory mechanics, electricity & magnetism, waves and optics, thermal physics.
• Mathematics and computational tools: calculus, linear algebra, differential equations, mathematical methods for physicists, and scientific programming (Python, C++ or similar).
• Advanced physics: intermediate and advanced quantum mechanics, statistical mechanics, relativistic dynamics and quantum field theory introductions relevant to particle physics.
• Nuclear and particle specialisms: nuclear structure and reactions, radiation detection and measurement, particle detectors and instrumentation, accelerator physics, and an introduction to the Standard Model.
• Laboratory and practical work: multi-term experimental labs emphasising measurement techniques, electronics, data acquisition and uncertainty analysis; hands-on experience with detector systems and radiation instrumentation.
• Research project or senior capstone: an independent or faculty-supervised research project that may be experimental, computational or theoretical. Undergraduates commonly work in faculty laboratories or on collaborations with national facilities.
• Electives and interdisciplinary options: courses in nuclear engineering, materials science, medical physics, data science and advanced computing to tailor the degree to applied or theoretical interests.

Entry requirements

Applicants to the University of Missouri are expected to have a strong high-school preparation in mathematics and science. Typical entry expectations include a competitive high-school GPA and completion of college-preparatory subjects.

• Recommended high-school subjects: mathematics through pre-calculus or calculus, physics, and at least two laboratory sciences such as chemistry and biology.
• Standardised tests and scores: the university considers standardised test scores where submitted; consult the admissions office for current policies on test-optional or required testing.
• Additional qualifications: Advanced Placement (AP), International Baccalaureate (IB) Higher Level, or other recognised post-secondary courses in calculus and physics strengthen an application.
• Transfer students: applicants transferring from community colleges or other universities should present college transcripts showing success in calculus and introductory physics courses; programme advisors evaluate transfer credit on an individual basis.
• Undergraduate research interest: demonstrated interest in research—through science projects, summer programmes or outreach—can be advantageous when applying to the physics major and seeking faculty mentors.

Career prospects

Graduates with a Bachelor’s in Physics specialising in Nuclear and Particle Physics are well placed for a range of technical and scientific careers or for further graduate study. The degree develops analytical reasoning, quantitative problem-solving and experimental skills valued across sectors.

• Research and development: positions in national laboratories, university research groups or industry R&D where nuclear instrumentation, detector development and particle physics techniques are applied.
• Medical and applied physics: roles in medical imaging, radiation therapy and health physics (often following additional professional training or graduate study).
• Engineering and technology: careers in instrumentation, accelerator operations, aerospace, electronics and materials science.
• Data science and computing: employment in data analysis, machine learning and software development, leveraging strong numerical and programming skills.
• Education and outreach: secondary-school teaching (with appropriate certification) and public engagement in science communication and museum or laboratory education.
• Further study: many graduates continue to MSc or PhD programmes in physics, nuclear engineering or related disciplines, or professional programmes in medicine or engineering.

Why study at University of Missouri

The University of Missouri offers undergraduate students direct access to active research programmes in nuclear and particle physics and a supportive departmental environment. MU is home to faculty engaged in experimental and theoretical research, providing opportunities for undergraduates to participate in meaningful research projects.

• Research Reactor and facilities: students can benefit from access to the University of Missouri Research Reactor (MURR) and laboratory facilities that support studies in nuclear science and applications.
• Undergraduate research opportunities: the department encourages student-faculty collaboration, summer research placements and presentation of work at conferences, helping prepare students for graduate study or technical careers.
• Hands-on training: dedicated laboratory courses, instrumentation training and computing resources give practical experience with detectors, data acquisition and analysis techniques used in nuclear and particle physics.
• Support and career services: physics advisors, career development resources and links with regional industries and national laboratories help students plan internships and transition into employment or postgraduate study.