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School of Physics |
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M.Y. Chou, Professor
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Electronic structure of condensed matter.
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E.H. Conrad
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Experimental study of solid surfaces using high-resolution low-energy electron diffraction (HRLEED) and synchrotron-based x-ray diffraction.
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D. Davidovic
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Mesoscopic physics, low temperature physics.
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W.A. De Heer
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Nanoscopic Physics, Nanoclusters in Beams, Carbon Nanostructures (Nanotubes, Onions), Metallic Nanowires.
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A. Erbil
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Creation and understanding of advanced material systems that might lead to the discovery of novel physical phenomena or to applications in electronics, optics, or sensors.
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P. First
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Solid-state systems at atomic length scales.
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J. Gole
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Physical phenomena that fall at the interface of chemical and condensed matter physics and material science.
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U. Landman
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Surface and Materials Science, Solid State Physics, Nanoscience, microscopic hydrodynamics, Statistical Physics, Chemical Physics, Computational Physics and Chemistry.
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A. Marchenkov
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Physics of reduced-dimensional heat flow and thermal equilibration in nanostructures.
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M. Pustilnik
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Theory of mesoscopic systems.
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E. Riedo
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UHV surface science characterization (STM, LEED, TDS) of metal and metal oxides surfaces, thin film surfaces, and nanostructures; Experimental nanomechanics and nanotribology with Atomic Force Microscopes (friction, adhesion, elasticity, wear); Amorphous Carbon thin films
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C. Sa De Melo
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Superconductors in High Magnetic Fields, Crossover from BCS to Bose-Einstein Superconductivity, Magnetic Coupling in Ferromagnetic/Superconductor Multilayers, Macroscopic Quantum Phenomena in Ferroelectrics and Ferromagnets, Bose-Einstein Condensation of Excitonic Systems, Quantum Computing with p -SQUIDs, Colossal Magneto Resistance Materials, Quantum Mutations in DNA.
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A. Zangwill
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Theory of nanoscale magnetic systems.
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