Abstract
We have studied helium adsorbed in new nanopores which have regular structures from nano-cage to three-dimensionally (3D) connected pores. Adsorption potential and layer formation of the adsorbed helium are observed by the vapor pressure for the adsorption. New paradigms of zero-D and 1D helium fluids are realized in nano-cages and nano-channels, respectively. The superfluid onsets (transitions) in the 1D and 3D nanopores show obvious dependence on the pore connections. The superfluid in the 3D pores has properties similar to the Bose-Einstein condensation of the 3D Bose atomic gas. The films of the 3He gas formed in the 4He preplated nanopores show the dimensional crossover depending on the pore connection: from the 2D Boltzmann gas to a 1D or 3D gas state with decreasing temperature. This gas changes to the degenerate state in each dimension at the lower temperatures. Extremely high frequency measurements of the helium adatoms on flat substrate determined the superfluid vortex parameters of the 4He films, and revealed a slippage (decoupling) of the helium adatoms in the non-superfluid state.
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Wada, N., Matsushita, T., Hieda, M. et al. Fluid States of Helium Adsorbed in Nanopores. J Low Temp Phys 157, 324–351 (2009). https://doi.org/10.1007/s10909-009-9918-7
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DOI: https://doi.org/10.1007/s10909-009-9918-7