Eastern Michigan University

What you'll study

The programme builds a firm foundation in graduate-level core physics while emphasising topics and techniques central to nuclear and particle physics. Core coursework typically covers advanced classical mechanics, graduate quantum mechanics, electromagnetic theory, and statistical mechanics, combined with specialised classes in nuclear physics and particle physics. Students study theoretical concepts such as nuclear structure, decay processes, particle interactions and symmetries, alongside experimental and applied subjects including radiation detection and measurement, detector instrumentation, accelerator basics, and data analysis methods.

Hands-on laboratory experience and research form a major component: students undertake a supervised research project or thesis under a departmental faculty advisor, where they can work on experimental detector development, data analysis for nuclear/particle experiments, or computational/theoretical modelling. Seminar courses and colloquia expose students to current research topics and to techniques such as Monte Carlo simulation, signal processing, and statistical inference used in subatomic physics.

• Advanced Quantum Mechanics
• Electrodynamics at the graduate level
• Statistical Mechanics and Thermodynamics
• Nuclear Physics and Structure
• Elementary Particle Physics
• Radiation Detection and Measurement
• Computational Physics and Data Analysis
• Research Methods and Thesis or Project

Entry requirements

Applicants are normally expected to hold a bachelor’s degree in physics, applied physics, or a closely related physical science or engineering discipline. Admissions look for evidence of solid preparation in undergraduate physics and mathematics (calculus, differential equations, linear algebra) and prior coursework in modern physics, classical mechanics, and electromagnetism where possible.

Required application materials typically include official academic transcripts, a statement of purpose describing research interests, one or more academic references, and a curriculum vitae or résumé. Applicants who lack specific undergraduate coursework may be admitted conditionally and asked to complete prerequisite undergraduate courses. International applicants must meet the university’s English language proficiency requirements.

Career prospects

Graduates with an MS focusing on nuclear and particle physics progress to a variety of roles in research, industry and education. Common career pathways include:

• Continuing to doctoral study in experimental or theoretical physics and related fields.
• Positions at national laboratories, accelerator facilities and research centres, working on instrumentation, detector development, experiment operations or data analysis.
• Roles in the nuclear industry, including reactor technology, radiation safety and regulatory work.
• Applied positions in medical physics, radiation oncology and diagnostic imaging (often with further professional training or certification).
• Data science, software development and engineering roles that leverage strong computational and quantitative skills.
• Teaching at the secondary or community-college level (with appropriate teaching credentials).

Why study at Eastern Michigan University

Eastern Michigan University offers a personalised graduate experience with small cohorts and close faculty mentorship, which is particularly valuable for experimental disciplines that require hands-on guidance. The Department of Physics provides access to modern teaching and research laboratories where students gain practical experience with detectors, radiation instrumentation and computational tools. Proximity to larger research communities and industry centres in the region creates opportunities for collaborative projects, internships and networking.

Students can pursue either a thesis or non-thesis option depending on career goals, and the department supports professional development through seminar programmes, teaching assistantships and preparation for further graduate study. The programme’s emphasis on both theoretical foundations and practical experimental skills prepares graduates for a wide range of technical and research careers in nuclear and particle physics and related fields.