University of Tulsa

What you'll study

The programme emphasises a solid foundation in advanced physics together with engineering applications and computational methods. Typical core topics include classical and quantum mechanics, electrodynamics, statistical physics and mathematical methods for physicists. Coursework commonly extends to applied areas such as condensed matter and materials physics, optics and photonics, semiconductor devices, nanotechnology, and experimental instrumentation.

Students can expect a mix of lecture courses, laboratory modules and hands‑on projects. Training in numerical modelling, data analysis and programming for scientific applications is integral, with common tools and techniques taught for simulation and experimental design. The degree normally offers pathways that include a faculty‑supervised research thesis or a project-based option, allowing students to build a substantial piece of original work or an applied engineering study.

Entry requirements

Applicants should hold a relevant bachelor’s degree in physics, engineering, or a closely related field. Admissions typically expect evidence of strong quantitative and analytical preparation — for example, undergraduate coursework in calculus, differential equations, classical mechanics, electromagnetism and basic quantum mechanics. Where background is incomplete, conditional admission with prescribed undergraduate bridging courses may be possible.

Application materials generally include academic transcripts, a personal statement outlining research or career goals, and letters of recommendation. International applicants must demonstrate English language proficiency through an approved test unless exempt. Admissions committees review applicants holistically, considering prior preparation, research experience, and potential for graduate‑level work.

Career prospects

Graduates of Engineering Physics are well placed for roles that require deep technical knowledge and problem‑solving skills. Career paths include research and development in industries such as aerospace, semiconductors, photonics and instrumentation, energy and materials, as well as roles in systems engineering and applied modelling. Many alumni move into laboratory and product development positions, technical consultancy, or engineering roles that bridge physics and design.

The degree also prepares students for further academic research; graduates often pursue doctoral programmes in physics, materials science or engineering disciplines. Transferable skills such as numerical analysis, experimental design and technical communication also open opportunities in data science, software development for scientific applications, and patent or technical policy roles.

Why study at University of Tulsa

The University of Tulsa offers a supportive, research-focused environment with small class sizes and close faculty mentoring. The programme’s interdisciplinary setting encourages collaboration between physics and engineering faculty, enabling students to tailor their studies toward applied or theoretical directions depending on career goals.

Students benefit from hands‑on access to laboratory facilities and computational resources, opportunities to participate in ongoing faculty research projects, and connections with local and regional technology and energy sectors. The campus environment emphasises professional development and prepares students for both industry roles and continued research training.