Graduate studies in physics at URI began in 1949, when the department was first authorized to grant master’s degrees. The doctoral program was started in 1964. The department has active research programs in a broad range of areas, and each research program is headed by a faculty member. Some programs have overlapping components because of intra-departmental collaborations.
Research Interests of URI Physics Faculty
Astrophysics: high energy extragalactic radio astrophysics.
Biological physics: membrane biophysics; membrane-associated folding/unfolding; molecular motors; steady-state and kinetics fluorescence and circular dichroism studies; calorimetry; small angle x-ray scattering on biological objects (at the European Synchrotron Radiation Facility, Grenoble); fluorescence microscopy; fluorescence polarization microscopy; spectral analysis from cells; electric cell substrate impedance sensing on cells.
Computational physics: classical and quantum Monte Carlo methods, large-scale parallel computations, optimization, many-body interactions and invariants, finite-size scaling.
Experimental condensed matter physics: electronic and structural properties of surfaces and thin films studied via low-energy electron diffraction, Auger electron spectroscopy, photoemission techniques (in-house and at the Brookhaven National Laboratory synchrotron facility); surfaces and interfaces in thin films and multilayers studied via X-ray and neutron reflection and diffraction (in-house and at the National Institute of Standards and Technology reactor facility); epitaxial growth, magnetism in nanoparticles and on surfaces via neutron and X-ray scattering; characterization of Lithium Ion Batteries using Hard X-ray Photoemission Spectroscopy (HAXPES), Rutherford backscattering, and scanning tunneling microscopy; ultrafast dynamics of hot carriers in 2-dimensional materials studied with multi-color femtosecond spectroscopy; phonon decay and vibrational dynamics in traditional and soft condensed matter studied by coherent Raman spectroscopy techniques; sub-optical cycle waveform generation.
Experimental neutron physics: ultracold neutrons used to study beta-decay, neutron optics (at the Institut Laue-Langevin, Grenoble).
Medical physics, physics oncology and nanotechnology: novel approaches in drug delivery and tumor targeting; whole-body and ex vivo fluorescence imaging; gold and magnetic nanoparticles; laser and x-ray radiation; hyperthermia; liposome delivery.
Statistical physics: Bethe ansatz, density functional theory, fractional exclusion statistics, applications to spin systems, quantum gases, granular matter, and biological matter.
Theoretical condensed matter physics: surface physics, phase transitions and critical phenomena, critical dynamics, superconductivity, quantum transport, systems with random rough boundaries, nano-scale films and clusters, disordered systems, low-dimensional systems, spin dynamics, nonlinear optics.
Theoretical low-temperature physics: Fermi and Bose quantum liquids, solids and gases; spin-polarized quantum systems, ultracold neutrons in quantizing gravity field.
Theoretical Research Groups
|Leonard M. Kahn||Theoretical condensed matter physics
|Charles Kaufman||Theoretical physics
|Alexander E. Meyerovich||Theoretical low temperature physics
||Theoretical condensed matter physics
|Gerhard Müller||Theoretical condensed matter physics
||Nonlinear dynamics and chaos
|Peter Nightingale||Condensed matter theory
|Michael Tammaro||Physics Education
Experimental Research Groups
|Oleg A. Andreev||Biological Physics
||Medical Physics, Physics Oncology and Nanotechnology
|Michael Antosh||Medical Physics
|David R. Heskett||Experimental condensed matter physics
|Surendra S. Malik||Experimental neutron physics
|Yana Reshetnyak||Biological Physics
|| Medical Physics, Physics Oncology and Nanotechnology
|Albert Steyerl||Experimental neutron physics