Worcester Polytechnic Institute

What you'll study

The programme blends advanced core topics in modern physics with flexible electives and a substantial research or project component. Core subject areas typically covered include quantum mechanics for applied systems, electrodynamics, statistical mechanics and transport, advanced laboratory techniques, and computational methods for modelling physical systems.

• Advanced quantum and condensed-matter physics — band theory, low-dimensional systems, superconductivity and electron transport.
• Optics and photonics — lasers, nonlinear optics, optical instrumentation and imaging.
• Nanoscience and materials — thin films, nanofabrication principles, surface science and characterization techniques.
• Experimental techniques and instrumentation — vacuum systems, cryogenics, microscopy (electron/atomic force), spectroscopy and detector technologies.
• Computational physics — numerical methods, finite-element modelling, Monte Carlo simulation and data analysis.
• Electives and interdisciplinary options — courses drawn from engineering (mechanical, electrical), robotics, biomedical engineering and materials science to support tailored study paths.

Students normally complete a combination of taught coursework and a significant culminating experience: either a thesis-based research project in a faculty lab or a substantial project aligned with WPI's project-based learning culture. Laboratory rotations, access to cleanroom and imaging facilities, and collaborations with other departments are common, allowing students to build both experimental and computational portfolios.

Entry requirements

Applicants should hold a recognised bachelor's degree in physics, applied physics, engineering or a closely related quantitative discipline. Typical preparation includes undergraduate coursework in classical mechanics, electromagnetism, quantum mechanics, laboratory physics and mathematics (calculus, differential equations and linear algebra).

• Academic transcripts: Official transcripts demonstrating solid preparation in core physics and mathematics.
• GPA/academic performance: Strong academic standing in prior studies; programmes are selective and assessed holistically.
• Supporting materials: Statement of purpose outlining research interests and career goals, and at least two academic or professional letters of recommendation.
• Research experience: Undergraduate research, senior thesis or relevant industry experience is advantageous but not strictly required.
• English language requirements: International applicants must meet the university's English proficiency requirements via recognised tests or qualifying exemptions.

GRE scores may be optional or not required depending on the admissions cycle; applicants should consult the programme's admissions office for current testing policies.

Career prospects

Graduates of the MS in Applied Physics are prepared for a range of technical and research roles. Common career destinations include R&D positions in materials, photonics, semiconductors and instrumentation companies; roles in applied measurement, device development and process engineering; and technical roles in aerospace, defence and medical device sectors.

The degree also provides a strong foundation for PhD study in physics, materials science or engineering. With their combined experimental and computational training, graduates are also competitive for positions in data analysis, software development for scientific applications, and technology consulting.

Why study at Worcester Polytechnic Institute

Worcester Polytechnic Institute emphasises project-based, experiential learning that integrates classroom theory with hands-on research — a match for applied physics students seeking practical lab and design experience. The university hosts modern facilities relevant to applied physics, including advanced fabrication and imaging labs, and supports cross-disciplinary collaboration with engineering and life-science departments.

Located in central Massachusetts, WPI offers proximity to a dense regional ecosystem of technology companies, national laboratories and research universities, facilitating internship and industry collaboration opportunities. Small class sizes and active faculty research groups mean students typically find close mentorship and opportunities to contribute to publishable research during their master's studies.