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Surface image

The ability to control the position of a fine tip in order to scan surfaces with subatomic resolution has brought scanning probe microscopies to the forefront in surface imaging techniques. We discuss the two primary techniques, scanning tunneling microscopy (STM) and atomic force microscopy (AFM) the interested reader is referred to comprehensive reviews [9, 17, 18]. [Pg.294]

A. T. Hubbard, ed.. Surface Imaging and Visualization, CRC Press, Boca Raton, FL. [Pg.319]

Flammiche A, Flourston D J, Pollock FI M, Reading M and Song M 1996 Scanning thermal microscopy sub-surface imaging, thermal mapping of polymer blends, localised calorimetry J. Vac. Sol. Technol. B 14 1486... [Pg.1730]

Figure Bl.26.21. Potential energy curves for an electron near a metal surface. Image potential curve no applied field. Total potential curve applied external field = -E. ... Figure Bl.26.21. Potential energy curves for an electron near a metal surface. Image potential curve no applied field. Total potential curve applied external field = -E. ...
NakatsujI H, Nakal H and Fukunishi Y 1991 Dipped adcluster model for chemisorptions and catalytic reactions on a metal surface Image force correction and applications to Pd-02 adclusters J. Chem. Phys. 95 640-7 NakatsujI H and Nakal H 1992 Dipped adcluster model study for the end-on chemisorption of O2 on an Ag surface Can. J. Chem. 70 404-8... [Pg.2235]

Fig. 35. Process flow for thin-film imaging lithography (a) bilayer process and (b) top surface imaging. The bilayer process shown here employs a positive-tone imaging layer. The TSI process illustrated refles on preferential silicon incorporation in the exposed regions of the imaging layer to give a... Fig. 35. Process flow for thin-film imaging lithography (a) bilayer process and (b) top surface imaging. The bilayer process shown here employs a positive-tone imaging layer. The TSI process illustrated refles on preferential silicon incorporation in the exposed regions of the imaging layer to give a...
In this section, the thin-film formation of OPVs is investigated with optical microscopy and X-ray diffraction (XRD). In the case of Oocl-OPV5, this has been supplemented with surface imaging by means of atomic force microscopy. It is demonstrated how an annealing treatment of the films alter deposition influences... [Pg.307]

As expected, the Pt(l 11) surface is covered under ambient conditions by the well-known Pt(lll)-(2x2)-0 adlattice which corresponds to Oq -0.25 where the superscript Pt denotes that the coverage is based on the total surface Pt atoms. The measured interatomic distance of 5.61 A (Fig. 5.49a) is in excellent agreement with literature for the Pt(lll)-(2x2)-0 adlatice. As manifest by the Fourier transform spectmm (Fig. 5.49b) of the surface image of Fig. 5.49a there exists on the surface a second hexagonally ordered adlattice,... [Pg.261]

Vancso, G.J., Hillborg, H., and Schonherr, R., Chemical composition of polymer surfaces imaged by atomic force microscopy and complimentary approaches, Adv. Polym. Sci., 182, 55, 2005. [Pg.577]

There are a number of concepts concerning the structure of small particles which have a bearing upon geometrical catalytic effects (e.g. 41-43). These follow both from the surface imaging results, and a detailed experimental (13-15) and theoretical (44-47) study of particle morphologies. [Pg.345]

The concept of just outside must be defined more closely. When the test charge is moved from the point of reference toward the surface, work is performed due to the (primary) electrostatic field being discussed. However, very close to the surface, image forces start to act on the test charge they give rise to an additional... [Pg.139]

EPMA Solid Wide (Z > 4) Surface, imaging, micro-analysis 3... [Pg.590]

Pco = 5 x 10 8 mbar). The times refer to the start of the CO exposure. The structure at the upper left corner is an atomic step of the Pt surface. Image sizes, 180A x 170A Vt = 0.5 V /t = 0.8nA. (Reprinted with permission from Ref. [58]. Copyright 1997, The American Association for the Advancement of Science.)... [Pg.74]

Vancso, G.J., Hillborg, H. and SchSnherr, H. Chemical Composition of Polymer Surfaces Imaged by Atomic Force Microscopy and Complementary Approaches. Vol. 182, pp. 55-129. [Pg.246]

Altelaar A, Klinkert I, Jalink K, et al. Gold-enhanced biomolecular surface imaging of cells and tissue by SIMS and MALDI mass spectrometry. Anal. Chem. 2006 78 734-742. [Pg.388]

DESI has also been introduced into MS imaging. [39] SIMS is also used for surface imaging and depth profiling. [40]... [Pg.72]

Scanning Tunneling Microscopy (STM) Photoemission Electron Microscopy (PEEM) Ellipsometry Microscopy for Surface Imaging (EMSI)... [Pg.182]

Optical methods are eminently suitable for imaging, the attractive property of photons being that they do not require vacuum. Hence, imaging under reaction conditions becomes possible. Among the successfully applied methods are infrared imaging (IRI) and reflection anisotropy microscopy (RAM) [72]. We will discuss ellipsomicroscopy for surface imaging (EMSI) in some detail here [74],... [Pg.212]

Figure 13.5. TOF-SIMS surface image of catalyst 10% Mo/AI203 calcinated at 500°C in air atmosphere (size 99.6 x 99.6 j,m2). (See color insert.)... Figure 13.5. TOF-SIMS surface image of catalyst 10% Mo/AI203 calcinated at 500°C in air atmosphere (size 99.6 x 99.6 j,m2). (See color insert.)...
Surface imaging is widely carried out to obtain information about the existence and distribution of trace impurities, alterations that occur when surfaces are contaminated... [Pg.282]


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AFM surface imaging

Aluminum surface image

Atomic Imaging of particle surfaces

Current imaging tunneling surfaces

Electrode surface images

Exit surface image

Granule Surface Imaging

Image surface porosity measurement

Image-Potential Surface States

Imaging Reactive Sites on a Surface

Imaging Surface preparation

Imaging Weakly Disordered Surfaces by STM

Imaging applications surfaces

Imaging atomic, particle surfaces

Imaging crystalline surfaces

Imaging in Liquid and the Determination of Surface Electrical Properties

Imaging single-crystal surfaces

Imaging studies, surface plasmon resonance

Imaging surface assisted laser desorption/ionization

Imaging surface dynamics, utility

Imaging surface processes

Imaging surfaces

Imaging surfaces

Imaging the PS Layer Surface with an Optical Profilometer

Latent image surface

Mapping surface: stiffness imaging

Mass spectrometry imaging surface, tissue sections

Metal image-potential surface states

Mica surface, imaging

Mossbauer surface imaging techniques

Near surface imaging

Near-surface imaging, introduction

Scanning surface images

Silicon oxide deposition, surface imaging

Silicon oxide deposition, surface imaging resists

Silicon surface image

Starch granules surface imaging

Subject imaging surface dynamics

Surface analysis imaging

Surface image analysis

Surface image analysis SIMS used

Surface imaging resist systems

Surface plasmon imaging

Surface plasmon resonance imaging

Surface potential image

Surface potential imaging mode

Surface profile imaging

Surface reactivity imaging, scanning

Surface reactivity imaging, scanning electrochemical microscopy

Surface-strain imaging

Surfaces FTIR imaging

Surfaces chemically sensitive imaging

The Scanning Tunneling Microscope (STM) Images of Individual Atoms on Surfaces

The effective image plane on metal surfaces

Theoretical surface image

Top surface imaging resists

Top-surface imaging

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