University of Minnesota

What you'll study

The programme blends core physics and applied engineering courses with mathematics and laboratory experience. Typical topics include classical mechanics, electromagnetism, quantum mechanics, statistical thermodynamics, solid-state physics and optics, alongside engineering subjects such as electronics, materials science, control systems and computational methods. Students also take a sequence of mathematics courses (calculus, differential equations, linear algebra) and computer programming for scientific applications.

Instruction combines lecture, problem-solving sessions and hands-on laboratories. Upper-level work emphasises modelling, instrumentation and experimental technique; many students undertake a senior capstone project, independent study or research with faculty to apply theory to practical problems. Electives allow specialisation in areas such as photonics and optics, nanotechnology and materials, microelectronics and devices, or computational physics.

Entry requirements

Applicants should demonstrate strong achievement in high school mathematics and science, particularly calculus and physics. Typical preparation includes advanced mathematics (calculus I and II where available), physics (mechanics and electromagnetism), and experience with laboratory work. The university looks for a solid academic record in relevant courses and evidence of quantitative problem-solving ability. Admission considers the whole application, including transcripts, personal statement and any demonstrated extracurricular engagement in STEM; transfer applicants are evaluated on college performance in comparable coursework.

Career prospects

Graduates with an Engineering Physics degree move into a wide range of careers because of their combined theoretical and practical skills. Common paths include roles in research and development, instrumentation and measurement, semiconductor and microelectronic industries, photonics and optics companies, aerospace, and materials engineering. Many alumni pursue graduate study in physics, engineering, or applied science; others work in software engineering, data science, consulting, technical sales, or patent and intellectual property work where strong technical grounding is valued.

Why study at University of Minnesota

The University of Minnesota offers this programme within a large research university environment, with faculty active in experimental and theoretical research across physics and engineering disciplines. Students benefit from access to well-equipped teaching and research laboratories, undergraduate research opportunities with faculty, and connections to regional industry and national research facilities. The Twin Cities location provides internship and employment opportunities across a diverse technology and manufacturing sector, while campus resources — including academic advising, career services and student organisations — support hands-on learning and professional development.