University of Dayton

What you'll study

The programme emphasises the application of fundamental physics to engineering systems. Core themes typically include quantum mechanics and solid‑state physics as applied to materials and devices, optics and photonics, electronic materials and devices, computational methods and numerical modelling, and experimental techniques. Students usually combine coursework with significant laboratory work, a research thesis or a capstone project.

• Typical modules: Advanced Quantum Mechanics for Engineers, Solid State Physics and Materials, Optics and Photonic Systems, Semiconductor Devices and Fabrication, Computational Physics and Numerical Methods, Instrumentation and Measurement Techniques.
• Laboratory and practical work: hands‑on experiments in optics, electronics and materials, device characterization, and use of advanced instrumentation for diagnostics and metrology.
• Project or thesis: students choose between a research thesis supervised by a faculty member or a substantial applied project; both routes develop independent research skills and technical communication.
• Structure: the programme combines taught modules with practical work and a research component; students follow either a thesis (research) or non‑thesis (coursework/project) route depending on their career goals.

Entry requirements

Applicants are expected to hold a bachelor’s degree in physics, engineering (for example electrical, mechanical, materials) or a closely related scientific discipline, with a strong record in relevant mathematics and physical sciences courses. Typical preparation includes undergraduate coursework in classical mechanics, electromagnetism, thermodynamics/statistical mechanics, and introductory quantum mechanics or electronic circuits.

• Academic transcripts: official transcripts demonstrating adequate preparation in physics and mathematics.
• Supporting materials: a personal statement describing research or professional interests, and at least two academic or professional references.
• English language: international applicants must demonstrate proficiency in English through an approved test if their prior degree was not taught in English.
• Additional considerations: some applicants with strong quantitative and technical experience but non‑traditional backgrounds may be considered; contact the department for advice about preparatory coursework if required.

Career prospects

Graduates of Engineering Physics combine deep physical insight with engineering practice, making them attractive to employers in research and development, instrumentation, semiconductor and photonics industries, aerospace and defence, and advanced manufacturing. Common roles include research scientist, device engineer, photonics or optical engineer, materials engineer, systems engineer, and roles in testing and metrology. Many alumni also progress to doctoral study in physics, materials science or engineering disciplines.

Why study at University of Dayton

The University of Dayton offers a close‑knit learning environment with small classes and access to faculty engaged in applied physics and engineering research. The university’s engineering programmes emphasise experiential learning and laboratory‑based training, and benefit from links with regional high‑technology and aerospace industries. Students can expect mentorship from research‑active staff, opportunities to work with contemporary instrumentation, and support for co‑operative or internship placements that connect academic learning with industry practice.