University of Chicago

What you'll study

The programme builds a solid foundation in classical and modern physics alongside intensive training in mathematics and engineering fundamentals. In the early years you will cover multivariable calculus, linear algebra, differential equations, introductory mechanics, electromagnetism and laboratory techniques. Core engineering topics usually include statics and dynamics, thermodynamics, circuits and materials, while computational methods, numerical modelling and experimental design provide practical skills.

In later years students move into more specialised subjects such as quantum mechanics, solid state physics, fluid dynamics, control systems and advanced electronics. The degree emphasises hands-on laboratory work and ends with a capstone research project or design sequence supervised by faculty, giving experience in experimental methods, simulation and technical communication. Electives often draw from applied mathematics, computer science, materials science, and bioengineering, allowing students to tailor the course to interests such as photonics, energy systems or microelectronics.

Entry requirements

Applicants are expected to demonstrate strong preparation in mathematics and the physical sciences. Typical evidence includes advanced high-school coursework (for example A-levels, IB Higher Level courses, Advanced Placement, or equivalent) with particular strength in calculus and physics; chemistry is also useful. Admissions decisions are based on the overall academic record, recommendation letters, and the applicant’s personal essays. Successful candidates normally show a track record of problem-solving, quantitative aptitude and curiosity for both theory and experiment.

Career prospects

Graduates with an Engineering Physics degree move into a wide range of technical and research-led careers. Common destinations include engineering roles in aerospace, energy, electronics and materials; research and development positions in industry and national laboratories; and technical roles in instrumentation, optics and semiconductor companies. The strong quantitative and programming skills gained also make graduates attractive to employers in data science, quantitative finance and software engineering. Many students continue to graduate study in engineering, physics, applied mathematics or related fields.

Why study at University of Chicago

The University of Chicago combines a rigorous, concept-driven approach to physics with opportunities for applied, hands-on engineering work. The campus culture emphasises analytical thinking and interdisciplinary study through a broad core curriculum that complements specialised technical training. Students benefit from access to active research groups and regional partnerships with national research facilities, enabling undergraduate participation in cutting‑edge projects.

Small class sizes in advanced courses, close faculty supervision for capstone projects, and dedicated career services help students prepare for both industry and academic careers. The programme’s flexibility lets students pursue cross-disciplinary electives and internships, while the university’s research environment supports those aiming for doctoral study or roles in high-technology fields.