The PhD in Physics program at WPI covers the full spectrum of research in the field with particular emphasis on Biophysics and Nanoscience. You’ll be well positioned to lead transformative research in our state-of-the-art labs.
Working collaboratively with world-renowned faculty and in small research groups, you’re part of the research fabric of the university. As a candidate pursuing a PhD in physics, you may choose to participate on outstanding faculty research projects such as light scattering, nanomechanics, liquid crystals, fiber optics, biophysics, order-disorder phenomena, and quantum computers.
Curriculum
Candidates pursuing a PhD in physics have the flexibility to work collaboratively on innovative faculty research endeavors and with colleagues from mathematics, computer science, or in the life sciences, but they can also develop their own tailored research approach in an area they are passionate about.
Requirements include approved courses like Classical Mechanics, Quantum Mechanics, and Advanced Electromagnetic Theory, and dissertation research, completion, and defense of the PhD thesis. PhD candidates will complete a one-year residency on campus.
We offer candidates more information about application specifics or available financial support.
Research for PhD in Physics
You’ll find significant opportunities for applied learning as your research immerses you in a stimulating collaborative community of fellow researchers and engaged faculty focused on real-world problems in medicine and health, the environment, and national defense.
Recent faculty and student research projects:
- The mechanical properties of materials at the nanoscale
- Experimental studies of liquid crystal and protein interactions
- Geometric proofs of the Kochen-Specker theorem
- A nonlinear elliptical problem for solid oxide fuel cell electrodes
State-of-the-art facilities across the campus include the WPI Life Sciences & Bioengineering Center at Gateway Park, and labs such as the Atomic Force Microscopy (AFM Laboratory) and the Center for Computational Nanoscience with Computer Clusters.
With specific strengths in the areas of biophysics and nanoscience, WPI’s physics program offers research opportunities that address areas from healthcare to lasers for missile avoidance systems.
The interdisciplinary approach to physics at WPI gives students opportunities to broaden their research and, therefore, have a wider impact with their work.
Physics presents opportunities for inspiring careers in areas including the environment, medicine, health, and national defense.
State-of-the-art facilities across the campus include the WPI Life Sciences & Bioengineering Center at Gateway Park, and labs such as the Atomic Force Microscopy (AFM Laboratory) and the Center for Computational Nanoscience with Computer Clusters.
With specific strengths in the areas of biophysics and nanoscience, WPI’s physics program offers research opportunities that address areas from healthcare to lasers for missile avoidance systems.
The interdisciplinary approach to physics at WPI gives students opportunities to broaden their research and, therefore, have a wider impact with their work.
Physics presents opportunities for inspiring careers in areas including the environment, medicine, health, and national defense.
State-of-the-art facilities across the campus include the WPI Life Sciences & Bioengineering Center at Gateway Park, and labs such as the Atomic Force Microscopy (AFM Laboratory) and the Center for Computational Nanoscience with Computer Clusters.
Physics labs at WPI use the latest, up-to-date equipment to advance researchers’ efforts. The IPG Photonics Laboratory, Atomic Force Microscopy Laboratory, and the Center for Computational Nanoscience have collaborative lab space to make groundbreaking discoveries. You’ll have access to instruments like fiber optical tweezers, traction force microscopy, and atomic force microscopy.
Faculty Profiles
Dr. Wu is an active researcher with a focus on soft matter and biophysics, which is an interdisciplinary field that encompasses physics, biology, and engineering. His work centers on the study of active fluids, which are a class of soft materials that comprise self-propelling particles capable of generating their own motion without the need for external forces or energy sources. Dr.
In my 25 plus years at WPI, I have been actively engaged in teaching and research at a variety of levels. Our Projects Program is the place where these two activities naturally come together, and the Major Qualifying Projects (or senior theses) I have guided over the years have been among my most rewarding experiences. In the mid 1990s, I became interested in the field of Quantum Information Science, whose goal is to store information in quantum objects, such as single atoms or photons, and explore ways in which it can be harnessed to perform tasks beyond the scope of today’s computers.
Nancy Burnham graduated from the University of Colorado at Boulder in 1987 with a Ph.D. in Physics. Her dissertation concerned the surface analysis of photovoltaic materials. As a National Research Council Postdoctoral Fellow at the Naval Research Laboratory, she became interested in scanning probe microscopy, in particular its application to detecting material properties at the nanoscale.
I perform experimental and computational (Monte Carlo) research in the field of applied nuclear physics with a focus on Medical and Health Physics. Presently my research group is investigating: 1) developing a unique technique to enable ultrahigh-resolution in-vivo functional imaging using neutrons,
2) adapting Gen. IV micro-reactors as the core of a next generation research nuclear reactor which also can supply carbon-free energy to a campus,
3) developing a 169Yb brachytherapy source to enable localized intensity-modulated radiation therapy, and,
For me, Physics is like a sandbox. It gives me the opportunity to play and discover, test, be creative, learn something new. At the same time, I am passionate about passing the thrill of discovery to my students. Teaching is a two-way street in which both parties get enriched from each other. I welcome and embrace the partnership. I also believe that college is the biggest and best opportunity in one's life to discover one's calling and do something about it and I invite students to take full advantage of it.
Professor Wen is an experimental biophysicist who is interested in applying physical methods to understand biological phenomena. By measuring the mechanical properties of living cells and the mechanical interaction between cells and ECM, he aims to understand how cells convert external mechanical signals to internal biochemical signals that govern cellular function, including cell morphology, migration, and differentiation. His research will help to design novel materials for wound healing, tissue engineering, and tumor treatment.
Dr. Wu is an active researcher with a focus on soft matter and biophysics, which is an interdisciplinary field that encompasses physics, biology, and engineering. His work centers on the study of active fluids, which are a class of soft materials that comprise self-propelling particles capable of generating their own motion without the need for external forces or energy sources. Dr.
In my 25 plus years at WPI, I have been actively engaged in teaching and research at a variety of levels. Our Projects Program is the place where these two activities naturally come together, and the Major Qualifying Projects (or senior theses) I have guided over the years have been among my most rewarding experiences. In the mid 1990s, I became interested in the field of Quantum Information Science, whose goal is to store information in quantum objects, such as single atoms or photons, and explore ways in which it can be harnessed to perform tasks beyond the scope of today’s computers.
Nancy Burnham graduated from the University of Colorado at Boulder in 1987 with a Ph.D. in Physics. Her dissertation concerned the surface analysis of photovoltaic materials. As a National Research Council Postdoctoral Fellow at the Naval Research Laboratory, she became interested in scanning probe microscopy, in particular its application to detecting material properties at the nanoscale.
I perform experimental and computational (Monte Carlo) research in the field of applied nuclear physics with a focus on Medical and Health Physics. Presently my research group is investigating: 1) developing a unique technique to enable ultrahigh-resolution in-vivo functional imaging using neutrons,
2) adapting Gen. IV micro-reactors as the core of a next generation research nuclear reactor which also can supply carbon-free energy to a campus,
3) developing a 169Yb brachytherapy source to enable localized intensity-modulated radiation therapy, and,
For me, Physics is like a sandbox. It gives me the opportunity to play and discover, test, be creative, learn something new. At the same time, I am passionate about passing the thrill of discovery to my students. Teaching is a two-way street in which both parties get enriched from each other. I welcome and embrace the partnership. I also believe that college is the biggest and best opportunity in one's life to discover one's calling and do something about it and I invite students to take full advantage of it.
Professor Wen is an experimental biophysicist who is interested in applying physical methods to understand biological phenomena. By measuring the mechanical properties of living cells and the mechanical interaction between cells and ECM, he aims to understand how cells convert external mechanical signals to internal biochemical signals that govern cellular function, including cell morphology, migration, and differentiation. His research will help to design novel materials for wound healing, tissue engineering, and tumor treatment.
Dr. Wu is an active researcher with a focus on soft matter and biophysics, which is an interdisciplinary field that encompasses physics, biology, and engineering. His work centers on the study of active fluids, which are a class of soft materials that comprise self-propelling particles capable of generating their own motion without the need for external forces or energy sources. Dr.
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