University of Arizona

What you'll study

The Engineering Physics curriculum blends physics, mathematics and engineering coursework. In early years you take foundational courses such as calculus, differential equations, classical mechanics, electromagnetism, waves and optics, modern physics and introductory laboratory courses. Engineering fundamentals—statics, dynamics, thermodynamics, circuits and materials—are integrated alongside computational methods and electronics.

In later years the programme offers advanced electives and tracks that allow specialised study in areas such as solid‑state and semiconductor physics, photonics and optics, nanoscience and materials, nuclear and radiation physics, control systems, or computational physics. A significant component is hands‑on: laboratory courses, instrumentation, and a senior design or capstone project. Students frequently pursue undergraduate research with faculty in units across campus, including optics, materials science, aerospace and applied physics laboratories.

• Core physics: classical mechanics, electromagnetism, quantum mechanics, statistical physics
• Mathematics and computation: multivariable calculus, linear algebra, differential equations, numerical methods
• Engineering fundamentals: circuits, thermodynamics, materials, fluid mechanics and dynamics
• Laboratory and instrumentation: experimental methods, electronics labs, optical labs
• Advanced electives: semiconductor devices, photonics, nanotechnology, control systems, materials characterization
• Capstone/senior project and opportunities for faculty‑led research

Entry requirements

Admission is through the University of Arizona undergraduate process. Applicants should demonstrate strong preparation in mathematics and science — typically high school calculus and physics — and a competitive academic record. Selection considers overall GPA, the strength of coursework in STEM subjects and extracurricular experiences such as research, engineering projects or internships. International applicants must show equivalent secondary qualifications and meet the university's English language proficiency requirements.

Because Engineering Physics is mathematically intensive, incoming students are expected to be comfortable with calculus and problem solving. Transfer applicants should have completed college calculus and introductory physics courses; exact transfer credit evaluations are determined by the university.

Career prospects

Graduates of Engineering Physics are prepared for technical, research and development roles across multiple industries. Common career paths include:

• R&D engineer in semiconductor, photonics or materials companies
• Design and instrumentation roles in aerospace, defence and energy sectors
• Systems and controls engineering, electronics and embedded systems
• Laboratory scientist or experimentalist in national labs and research institutes
• Technical roles in optical engineering, imaging and sensor development
• Continued study: many graduates pursue master's or PhD programmes in engineering, applied physics, materials science or related fields
• Alternative careers: patent law (with further qualifications), technical consulting and data‑driven roles

Why study at University of Arizona

The University of Arizona offers a strong interdisciplinary environment for Engineering Physics students, with close ties between the College of Engineering, the Department of Physics, and specialised centres such as optics and materials research groups. Students benefit from hands‑on lab facilities, opportunities for undergraduate research with active faculty, and connections to regional industry and national laboratories. The programme emphasises practical problem solving and prepares graduates for both industry roles and advanced study.

Additionally, the university supports co‑curricular development through career services, internships and engineering clubs, helping students build professional experience while they study. The combination of rigorous coursework, research access and practical experience makes the University of Arizona a suitable place for students aiming to apply physics to real‑world engineering challenges.