Tennessee Technological University

What you'll study

This programme builds a firm foundation in classical and modern physics before moving to specialised nuclear and particle topics. Early years emphasise calculus-based mechanics, electromagnetism, waves, thermodynamics and introductory modern physics. Subsequent core courses typically include quantum mechanics, statistical mechanics, classical electrodynamics and mathematical methods for physicists.

• Laboratory and practical skills: coordinated physics laboratories, electronics and instrumentation labs, and courses in radiation detection and measurement develop hands-on experimental competence.
• Nuclear and particle curriculum: courses in nuclear physics, particle physics, nuclear decay and reactions, detector technologies, accelerator physics basics, and radiation safety provide specialised knowledge.
• Computational and mathematical training: programming for physicists, numerical methods, linear algebra and differential equations support data analysis and modelling.
• Capstone and research: an undergraduate research project or senior capstone is normally required, allowing students to work alongside faculty on experimental or theoretical nuclear/particle topics.
• Electives and breadth: students can choose electives in applied physics, engineering-related subjects, materials science, or advanced laboratory courses to tailor their degree toward careers or graduate study.

Entry requirements

Applicants should hold a high school diploma or equivalent with strong preparation in mathematics (calculus recommended) and physics. Typical preparation includes algebra, trigonometry, calculus, and high-school physics; courses or exam credit in calculus-based physics are advantageous. Admissions look for evidence of quantitative ability, problem-solving skills, and laboratory experience where possible.

For transfer applicants, completion of first-year calculus and physics courses will usually be required for direct entry into the major sequence. International applicants should demonstrate equivalent secondary qualifications and English language proficiency in line with university regulations.

Career prospects

Graduates with a physics degree specialising in nuclear and particle physics have a broad range of career pathways. Many proceed to graduate study (master's or PhD) in physics, nuclear engineering, medical physics or related fields. Others find roles in industry and government:

• Research positions at national laboratories and university groups, particularly in nuclear and particle experiment or theory.
• Technical and engineering roles in the nuclear power sector, radiation detection and instrumentation manufacturers, and accelerator facilities.
• Positions in health physics, radiation safety, and medical imaging companies (often with additional professional training or certification).
• Data analysis, software development and modelling roles that value strong quantitative and computational skills.
• Teaching at secondary schools (with appropriate certification) or outreach and science communication roles.

Why study at Tennessee Technological University

Tennessee Tech offers a personalised undergraduate experience with accessible faculty and opportunities for hands-on work. The physics department emphasises laboratory training and undergraduate research, enabling students to gain experimental skills in nuclear instrumentation and detection technologies.

Geographic proximity to regional research centres and national laboratories provides additional opportunities for internships, collaborations and employment in nuclear science. Small class sizes and active student groups, such as the Society of Physics Students, support peer learning and professional development. Career services and departmental advising help students plan for graduate study or industry careers.