M. W. Cole

Bose-Einstein condensation of helium and hydrogen inside bundles of carbon nanotubes

Helium atoms or hydrogen molecules are believed to be strongly bound within the interstitial channels (between three carbon nanotubes) within a bundle of many nanotubes. The effects on adsorption of a nonuniform distribution of tubes are evaluated. The energy of a single-particle state is the sum of a discrete transverse energy

Anomalous Low Temperature Specific Heat of3He Inside Nanotube Bundles

{E}_{t}

Isotopic and spin selectivity of H 2 adsorbed in bundles of carbon nanotubes

(that depends on the radii of neighboring tubes) and a quasicontinuous energy

Wetting transitions of hydrogen and deuterium on the surface of alkali metals

{E}_{z}

Anomalous specific heat of 3He in 4He-coated FSM-16 mesopores

of relatively free motion parallel to the axis of the tubes. At low temperature, the particles occupy the lowest-energy states, the focus of this study. The transverse energy attains a global minimum value

Expansion or Contraction of Slit Pores Due to Gas Uptake

({E}_{t}={E}_{\mathit{min}})

Xe adsorption on aC60monolayer on Ag(111)

for radii near

Xe adsorption on a C60 monolayer on Ag(111)

{R}_{\mathit{min}}=9.95\phantom{\rule{0.3em}{0ex}}\mathrm{\AA{}}

Unified theory of adsorption, pore-filling and wetting

for

Quasi-One-Dimensional Electronic States Inside and Outside Helium-Plated Carbon Nanotubes

{\mathrm{H}}_{2}