Marymount University

What you'll study

The Engineering Physics degree blends core physics theory with practical engineering and computing skills. Early years focus on calculus, linear algebra, classical mechanics, electromagnetism, and laboratory methods. Intermediate and advanced modules typically include thermodynamics and statistical mechanics, quantum mechanics, materials science, electronics and instrumentation, control systems, and applied optics. Students also study numerical methods and scientific programming, and take project-based courses that emphasise measurement, data analysis and design.

• Core physics: classical mechanics, electromagnetism, quantum mechanics, thermodynamics
• Mathematics and computation: calculus sequence, differential equations, linear algebra, numerical methods, programming for scientists
• Engineering and applied topics: circuits and electronics, materials science, instrumentation, control theory, applied optics
• Laboratory and practical work: experimental physics labs, electronics labs, measurement and error analysis
• Capstone and research: senior design project or directed undergraduate research with a faculty mentor
• Optional electives and professional development: technical electives, internships, and courses in project management and ethics

Entry requirements

Applicants are expected to have a solid background in mathematics and the physical sciences from secondary education. Typical requirements include a high school diploma with strong performance in mathematics (including calculus where available) and physics. Applicants from systems using A-levels, the International Baccalaureate or equivalent should present mathematics and a science subject at a college-preparatory level.

Marymount considers overall academic record, recommendations and any relevant laboratory or project experience. Standardised test scores may be considered where provided; international applicants must demonstrate English proficiency through an approved test or equivalent evidence of English-language study. Mature applicants with prior college coursework or relevant work experience are considered on an individual basis.

Career prospects

Graduates with an Engineering Physics degree are prepared for a wide range of technical and scientific careers. Common pathways include roles in research and development, instrumentation and measurement, electronics and photonics, materials and manufacturing, and systems engineering. The programme also provides strong preparation for graduate study in physics, engineering disciplines, or applied fields such as materials science and electrical engineering.

Other career directions include technical work in defence and government laboratories, energy and utilities, aerospace, medical device companies, and software or data analysis roles. Graduates may also move into interdisciplinary areas such as patent law, technical consulting or science policy after additional training.

Why study at Marymount University

Marymount offers a personalised undergraduate experience with small class sizes and close faculty mentorship, allowing hands-on involvement in laboratory courses and independent research projects. The university’s location near the Washington, D.C. region provides access to internships, research collaborations and employment opportunities with government agencies, national laboratories and local technology firms.

Students benefit from modern teaching laboratories, computing resources, and career services that support internship placement and professional development. The programme emphasises experiential learning through capstone projects and partnerships with industry and regional research institutions, helping graduates transition from academic training to technical careers or further study.