University of Dayton

What you'll study

The Engineering Physics programme integrates core physics topics with engineering fundamentals and applied laboratory work. Early years focus on calculus, classical mechanics, electromagnetism, waves and optics, and introductory modern physics alongside engineering mathematics and computing. Progressive study introduces courses in thermodynamics, statistical mechanics, quantum mechanics, materials science, electronics and instrumentation, and applied numerical methods.

• Foundations: calculus sequence, differential equations, linear algebra, and physics lab skills.
• Core physics: classical mechanics, electromagnetism, optics and wave phenomena, and quantum physics.
• Engineering integration: circuits and electronics, materials and solid‑state physics, thermodynamics, fluid mechanics and control systems as relevant to applications.
• Computational methods: scientific programming, numerical modelling, data analysis and simulation tools used in experimental and theoretical work.
• Experimental practice: multi‑term laboratory courses, instrumentation, measurement techniques and uncertainty analysis.
• Design and synthesis: project‑based design experiences and a senior capstone or research project where students apply physics and engineering principles to solve real problems.

Students choose elective modules to tailor the degree toward interests such as photonics and optics, semiconductor devices, applied materials, aerospace applications, or biomedical instrumentation. Opportunities for undergraduate research with faculty and collaborations with the University of Dayton Research Institute allow students to gain hands‑on experience in applied research and development.

Entry requirements

Applicants are expected to demonstrate strong preparation in mathematics and physical sciences. Typical successful applicants have completed high school or secondary qualifications with high achievement in mathematics (including calculus where available) and physics. For applicants presenting A‑levels (or equivalent), strong grades in Mathematics and Physics are normally required; a third science or engineering subject is beneficial. For U.S. students, competitive candidates present a strong high‑school transcript with advanced coursework in math and science. International applicants should present equivalent secondary credentials.

In addition to academic preparation, the programme looks for evidence of problem‑solving ability and commitment to hands‑on work, which can be shown through laboratory experience, related extracurricular activities, or work placements. Applicants whose first language is not English will need to meet the university’s standard English language requirements.

Career prospects

Graduates with an Engineering Physics degree have versatile career options that bridge pure physics and practical engineering. Common career paths include roles in research and development, instrumentation and measurement, electronics and photonics, semiconductor industry, aerospace and defence, energy and materials, and biomedical device development.

• Technical roles: experimental physicist, applied scientist, systems engineer, design engineer, or instrumentation engineer.
• Industry R&D: positions in high‑technology firms working on sensors, lasers, microelectronics, or materials development.
• Graduate study: many students progress to MSc or PhD programmes in physics, engineering, materials science or related fields, or pursue professional engineering accreditation where applicable.
• Other pathways: roles in technical consulting, patent and intellectual property, data analysis and modelling, or STEM education.

The University of Dayton’s links with regional industry and its strong support for internships, co‑op placements and undergraduate research help students build practical experience and employer connections before graduation.

Why study at University of Dayton

The University of Dayton offers an Engineering Physics programme grounded in a strong tradition of applied research and experiential learning. Students benefit from access to modern laboratories, research collaborations through the University of Dayton Research Institute, and small class sizes that promote close interaction with faculty. The curriculum emphasises hands‑on projects and a senior capstone experience that prepare graduates for technical careers or further study.

As a comprehensive university with active industry partnerships, UD supports internships, cooperative education and undergraduate research opportunities that help students develop practical skills and professional networks. The university’s supportive campus environment and career services provide guidance on internships, graduate school applications and entry into STEM professions.