Murray State University

What you'll study

The programme delivers a core physics curriculum in classical mechanics, electromagnetism, quantum mechanics, thermodynamics and statistical mechanics, combined with progressive laboratory experience and computational methods. For students concentrating on nuclear and particle physics, typical third- and fourth-year topics include courses in modern physics, nuclear physics, particle physics, radiation physics and detector techniques.

• First- and second-year core: calculus-based introductory physics sequence, calculus I–III, differential equations, and introductory laboratory courses that emphasise measurement, error analysis and experimental design.
• Intermediate core: classical mechanics, intermediate electricity & magnetism, modern physics, and introductory quantum mechanics with associated laboratory components.
• Advanced and specialised courses: quantum mechanics II, statistical mechanics/thermodynamics, nuclear physics, particle physics, radiation detection and measurement, and advanced laboratory or capstone research projects.
• Computational and experimental skills: numerical methods, scientific programming, electronics for physicists, and courses teaching data acquisition and analysis methods used in nuclear and particle experiments.
• Research and capstone: independent research projects under faculty supervision, senior seminar or thesis options, and opportunities to present results at departmental symposia.
• Electives and cross-disciplinary options: students commonly take courses in mathematics, chemistry, computer science or engineering to complement their physics training; a path to teacher certification is also available for those interested in secondary education.

Entry requirements

Applicants should hold a high school diploma or equivalent with strong preparation in mathematics (including pre-calculus or calculus) and physics. Admissions typically consider high school GPA, academic transcript strength, and recommendations; successful applicants usually have taken calculus and physics at the high-school level where available.

• Recommended preparation: calculus (or concurrent enrolment), high-school physics and chemistry, and solid grounding in algebra and trigonometry.
• Placement: incoming students may be placed into appropriate calculus and physics sequences based on prior coursework or placement tests.
• Transfer students: transfer credit for introductory physics and mathematics may be granted subject to departmental review and course equivalence.
• International applicants: proof of English proficiency (such as TOEFL or IELTS) is normally required unless previously educated in English; academic records should be submitted for evaluation.
• Additional expectations: because the programme is mathematically intensive, demonstrated aptitude for quantitative work is important; students lacking preparation are often advised to take preparatory courses in math before tackling advanced physics courses.

Career prospects

Graduates with a physics degree and coursework in nuclear and particle physics are well prepared for a range of career paths. Many move on to graduate programmes (MSc/PhD) in physics, nuclear engineering, medical physics or related fields. Others enter the workforce directly in technical roles.

• Research and academia: graduate study leading to careers in university or national-laboratory research focused on nuclear and particle physics.
• Industry and national labs: technical positions in nuclear power, radiation safety and instrumentation, particle detector development and applied research; regional national laboratories and research facilities often recruit physics graduates for internships and staff roles.
• Medical and health physics: careers in medical physics, radiologic sciences or radiation protection following additional specialised training or certification.
• Engineering and technology: roles in electronics, instrumentation, data analysis, software development and systems engineering.
• Education and outreach: secondary-school physics teaching (with appropriate certification) and science communication or museum education.
• Data and quantitative careers: data science, quantitative finance, and analytics roles that value strong problem-solving and modelling skills.

Why study at Murray State University

Murray State University offers a physics programme with small class sizes and accessible faculty, allowing close mentorship and involvement in hands-on laboratory work and independent research. The Department of Physics and Engineering Physics emphasises undergraduate research, so students can gain practical experience in experiment design, data analysis and instrumentation under faculty guidance.

• Undergraduate research: opportunities to conduct faculty-supervised projects and present findings, providing strong preparation for graduate study or technical employment.
• Facilities and training: coursework integrates modern laboratory techniques, electronics and computational methods relevant to nuclear and particle physics.
• Regional opportunities: students may benefit from internship and collaboration prospects at research institutions and technical facilities in the broader region.
• Flexible pathways: the curriculum supports students aiming for graduate school, industry roles or teacher certification, with advising to tailor coursework to career goals.