Titlebook: Atomic Force Microscopy/Scanning Tunneling Microscopy; Samuel H. Cohen,Mona T. Bray,Marcia L. Lightbody Book 1994 Springer Science+Busines

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Scale-Area Analysis of Scanning Tunneling Microscopy/Atomic Force Microscopy Data by the Patchwork M uses triangular patches to calculate areas of the topographic data set as a function of patch areas, i.e., as a function of scale. This patchwork method is analogous to the coastline method of fractal analysis for profiles, however, because the calculations are based on areas rather than profiles o

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Atomic Force Microscopic Imaging of Biomineral Powder Samples Formed by Deposits from Ethanolic Susp a NaC1 sample prepared in a like manner. The characteristic face-centered cubic (fcc) structure common to the sodium halide salts was apparent in NaC1 atomic scale images. A periodicity of 0.60 nm, which is within 6% of the value of the NaC1 lattice constant, was measured..By suspending biomineral

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Scanning Tunneling Microscopy Studies of Fullerene C60te (“frozen state” — no movement or rotation), direct imaging of C. with atomic resolution was possible, showing pentagon and hexagon carbon rings of C.. A high voltage STM pulse of C. appears to have created a defect resulting in C. which can dimerize to C.. C. has potential utility as a molecular

Contend

Scanning Tunneling Microscopy Studies of Alcohol/Alkane Mixtures Adsorbed on Graphite Surfacesfunctional groups in determining the adsorbate/surface sticking probability. The images observed for these mixtures indicate that the alcohol and alkanes form separate regions on the surface and that the sticking probability is dependent on the liquid phase environment above the graphite surface. Th

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Scanning Tunneling Microscopy and Spectroscopy of Carbon Nanotubeses are 5–7 nm in diameter and up to 1 in length. The I–V curves indicate that carbon nanotubes with diameters of approximately 5.0 nm are metallic. This observation is consistent with recent theoretical predictions concerning the electronic structure of carbon nanotubes in relation to their diameter