H. Smith

Coulomb drag between parallel two-dimensional electron systems

The Coulomb contribution to the temperature-dependent rate of momentum transfer, 1/

Boundary effects in fluid flow. Application to quantum liquids

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Influence of Induced Interactions on the Superfluid Transition in Dilute Fermi Gases

, between two electron systems in parallel layers is determined by setting up two coupled Boltzmann equations, with the boundary condition that no current flows in the layer where an induced voltage is measured. The effective Coulomb interaction between the layers is determined self-consistently, allowing for the finite thickness of the layers. As T\ensuremath{\rightarrow}0, we find that 1/

Scaling of the Raman gain coefficient: applications to germanosilicate fibers

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Bloch Oscillations, Zener Tunneling, and Wannier-Stark Ladders in the Time Domain

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Viscous relaxation and collective oscillations in a trapped Fermi gas near the unitarity limit

approaches a constant value. At higher temperatures, 1/

Surface impedance and slip length of superfluid fermi liquids. Exact results

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Shear viscosity and damping for a fermi gas in the unitarity limit

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