Columbia University

What you'll study

The programme integrates advanced coursework in classical and quantum physics with applied engineering topics and computational methods. Core subject areas typically include mathematical methods for physicists and engineers, classical mechanics, electrodynamics, quantum mechanics, statistical physics, and numerical modelling. Students also take engineering-focused modules such as solid-state physics and materials, photonics and optical systems, micro- and nano-scale device physics, control systems, and signal processing depending on faculty offerings and elective choices.

Practical training is emphasised through laboratory courses, project-based design work and a substantial research or capstone project under the supervision of faculty in Columbia’s engineering and applied physics groups. Electives allow specialisation in areas such as quantum engineering, nano-materials, semiconductor devices, photonic engineering, sensors and measurement, energy systems, or computational physics. Coursework is supplemented by seminars and opportunities to collaborate with research centres across the university.

Entry requirements

Applicants should normally hold a UK undergraduate degree (or international equivalent) in physics, engineering, applied mathematics or a closely related discipline with strong preparation in calculus, differential equations, linear algebra and introductory physics. Typical application materials include official transcripts, a personal statement outlining academic and research interests, two or three academic references, and a CV.

Columbia requires evidence of English-language proficiency for applicants whose first language is not English. Some programmes or supervisors may expect prior research experience or demonstrated programming skills (for example in Python, MATLAB or C/C++), depending on the intended research specialisation. Admission is competitive and assessed holistically on academic record, letters of recommendation and fit with faculty research interests.

Career prospects

Graduates of an Engineering Physics master’s combine strong theoretical understanding with practical engineering skills, making them attractive to employers across multiple sectors. Typical roles include research and development engineer, design engineer, device or process engineer, optical or photonics engineer, systems engineer, and data or modelling scientist. Alumni also move into high-technology industries such as semiconductors, photonics, aerospace, instrumentation, renewable energy and medical devices.

The degree also provides solid preparation for doctoral study in applied physics, materials science, electrical engineering or related fields, as well as for technical roles in finance and consulting where quantitative modelling and problem-solving are valued. Location in New York City further facilitates links with industry partners, start-ups and national laboratories for internships and employment.

Why study at Columbia University

Columbia’s Fu Foundation School of Engineering and Applied Science brings together interdisciplinary research strengths, access to specialised laboratories and proximity to a major technology and innovation ecosystem in New York City. Students benefit from faculty who are active in experimental and theoretical research, collaborative centres across the university, and opportunities to work on cutting-edge projects spanning materials, photonics, quantum science and device engineering.

Beyond the laboratory, Columbia offers a broad academic environment with cross-disciplinary courses, industry engagement, seminars and a large alumni network. The programme’s emphasis on both rigorous physics and applied engineering equips graduates to bridge fundamental science and practical technology development.