University of Tennessee

What you'll study

The programme builds from core undergraduate physics through targeted modules in nuclear and particle physics, combining classroom instruction with laboratory and computational training. Early years cover classical mechanics, electromagnetism, waves and optics, introductory quantum mechanics, and mathematical methods for physicists. Core laboratory courses develop practical experimental skills, including error analysis and instrumentation.

Specialist modules and topics you can expect include:

• Quantum Mechanics II — advanced formalism and applications relevant to subatomic systems.
• Nuclear Physics — nuclear structure, reactions, decay modes and experimental techniques.
• Particle Physics — the Standard Model, particle interactions, and accelerators.
• Radiation Physics and Detection — detector technologies, radiation interactions, and measurement methods.
• Computational Physics and Data Analysis — numerical methods, simulation, and data handling for large datasets.
• Experimental Methods in Modern Physics — design and execution of experiments, including electronics and instrumentation.

The degree typically requires calculus and higher mathematics modules alongside electives that allow you to broaden your skillset (for example in electronics, materials, or computer science). A major element is the opportunity for sustained undergraduate research or a capstone project; many students complete supervised research with departmental groups or in collaboration with nearby national research facilities.

Entry requirements

Applicants should hold a recognised secondary school qualification with strong achievement in mathematics and physics. Preparation in calculus and a solid grounding in algebra and trigonometry are important. Admissions look for evidence of quantitative ability and problem-solving skills, shown through grades, teacher references, and a personal statement describing relevant experience and motivations.

Transfer applicants are considered based on college transcripts and completed gateway courses (calculus, introductory physics). International applicants must demonstrate English language proficiency through an accepted test or qualification. Some students enter with advanced standing from AP, IB or other recognised pre-university examinations; credit or exemptions depend on departmental assessment.

Career prospects

Graduates with a physics specialism in nuclear and particle physics have a wide range of career paths. Many proceed to postgraduate study (MSc, PhD) in experimental or theoretical physics, preparing for academic or research careers. There are strong links between the University of Tennessee and national laboratories, so some graduates move directly into roles at organisations such as Oak Ridge National Laboratory, accelerator facilities, or international collaborations.

Other common career destinations include:

• Instrumentation, detector development and accelerator operations
• Medical physics and radiological technology
• Data science, software engineering and quantitative analysis in industry
• Energy sector, radiation protection and nuclear engineering support roles
• Teaching and science communication

Why study at University of Tennessee

The University of Tennessee offers a strong physics department with active research groups in nuclear and particle physics and close collaborative links with nearby national research facilities. Students benefit from access to specialised instrumentation, opportunities for paid research assistantships, and faculty who are engaged in experimental programmes and large collaborations.

The department emphasises undergraduate research, small-class mentoring, and practical training in instrumentation and data analysis. Situated within a regional hub of scientific activity, the programme provides pathways to internships and careers at national laboratories and international research centres, while campus resources support career planning and postgraduate preparation.