Marymount University

What you'll study

The programme provides a broad grounding in classical and modern physics with targeted coursework and laboratory work in nuclear and particle physics. Core topics typically include classical mechanics, electrostatics and electrodynamics, thermodynamics and statistical mechanics, and quantum mechanics. Students take dedicated courses covering nuclear physics, radioactive decay and detection methods, particle physics and the standard model, plus complementary topics such as computational physics, electronics for instrumentation, and mathematical methods for physicists.

Hands‑on learning is emphasised through progressive laboratory courses and an upper‑level experimental capstone or senior project in which students design experiments, analyse data and present results. Coursework is supported by training in programming and data analysis, often using tools common in the physical sciences. The curriculum also integrates liberal‑arts requirements, communication skills and opportunities for independent research with faculty, which allow students to pursue specialised interests within nuclear and particle physics.

Entry requirements

Applicants should hold a high school diploma or equivalent with a strong background in mathematics and science. Typical preparation includes coursework in calculus, physics and chemistry. Admissions will consider overall academic record, teacher references and a personal statement describing interest in physics; some applicants may be asked to provide standardised test scores if required by the university’s admissions policy. Incoming students without college calculus may be advised to take preparatory courses before beginning the physics sequence.

Career prospects

Graduates are prepared for a range of pathways. Many pursue graduate study in physics, nuclear engineering, medical physics or related fields. Career options directly related to the specialism include roles in national laboratories, nuclear industry and reactor operations, radiation detection and instrumentation, and experimental particle physics groups. Transferable skills in quantitative analysis, programming and instrumentation also open opportunities in data science, engineering support, technical consulting and education. With additional professional training or certification, graduates can move into medical physics, health physics and other applied sectors.

Why study at Marymount University

Marymount offers a small, student‑centred environment with accessible faculty and opportunities for one‑to‑one mentoring and undergraduate research—beneficial for developing experimental and analytical skills in physics. Its location near the Washington, D.C. region provides proximity to national research facilities, government laboratories and industry employers, which can facilitate internships and collaborative projects. The programme’s blend of rigorous physics coursework, laboratory experience and liberal‑arts education aims to produce well‑rounded scientists prepared for graduate study or technical careers.