Lewis University

What you'll study

The programme combines advanced coursework with a supervised research project or thesis. Core topics emphasise the theoretical foundations and experimental techniques of nuclear and particle physics alongside supporting subjects in mathematical methods and computing.

• Advanced Quantum Mechanics: relativistic quantum theory, scattering theory and applications to particle interactions.
• Statistical Mechanics and Field Theory: many-body methods and an introduction to quantum field theory concepts used in particle physics.
• Nuclear Physics: nuclear structure, reactions, decay modes and models of the nucleus.
• Particle Physics: the Standard Model, symmetry principles, particle interactions and experimental signatures.
• Radiation Detection and Instrumentation: detectors, electronics, signal processing and measurement techniques used in nuclear and particle experiments.
• Experimental Methods and Laboratory Techniques: hands-on experiments, accelerator basics, beam instrumentation and safety practices for working with radiation sources.
• Computational Physics and Data Analysis: numerical methods, Monte Carlo simulation, statistical inference and software tools for large datasets common in modern experiments.
• Research Project / Thesis: an original research component conducted under faculty supervision, often involving experimental work, detector development, data analysis or theoretical modelling.

Entry requirements

Applicants are expected to hold a bachelor’s degree in physics or a closely related field (for example applied physics, engineering physics or a physical science) with strong preparation in classical mechanics, electromagnetism, quantum mechanics and calculus-based mathematics. Typical application materials include academic transcripts, a personal statement outlining research interests and goals, and letters of recommendation from academic or professional referees.

Candidates who lack specific prerequisites may be admitted conditionally and asked to complete specified undergraduate courses. International applicants must meet the university's English language requirements.

Career prospects

Graduates from the programme move into a range of technical and research roles. Common career paths include:

• Research scientist or engineer at national laboratories, accelerator centres and university research groups.
• Technical roles in detector development, radiation instrumentation, medical imaging and radiation safety.
• Data scientist, software developer or analyst roles that leverage experience in large-scale data analysis and modelling.
• Further study at the doctoral level in nuclear, particle or accelerator physics.
• Positions in industry sectors such as instrumentation, aerospace, energy and healthcare technology that require strong experimental and quantitative skills.

Why study at Lewis University

Lewis University offers a programme environment with small class sizes and close faculty mentorship, making it easier to secure research supervision and hands-on laboratory experience. The university’s location in the Chicago region provides proximity to major national research centres and laboratories, which can facilitate collaborative projects, internships and access to specialised facilities.

The curriculum is designed to balance theoretical rigour with practical laboratory and computational skills, preparing graduates for both continued academic research and applied technical careers. Flexible scheduling options and support for professional students make the programme suitable for those combining study with work.