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Metallic thin films

Table 2. Magnetic Fundamentals of Rare-Earth Transition-Metal Thin Films... Table 2. Magnetic Fundamentals of Rare-Earth Transition-Metal Thin Films...
Whereas the traditional dimethyl siloxane fluids provide very poor lubrication for steel on steel and other common metals, thin films on glass reduce handling damage, small amounts in plastic composites bleed to the surface for self-lubrication, and they provide a superior lubricant for mbber surfaces. [Pg.247]

Surface potential of pure metal thin films 245... [Pg.43]

Venkatakrishnan K, Tan B, Sivakumar NR. 2002. Sub-micron ablation of metallic thin film by femtosecond pulse laser. Opt Laser Tech 34 575-578. [Pg.408]

Direct solid sampling (bulk metal, thin film, compacted powder, solution residues)... [Pg.652]

Baum, T. H. Larson, C. E. Ligand Stabilised +1 Metal /3-diketonate Coordination Complexes and their Use in Chemical Vapour Deposition of Metal Thin Films. U.S. Patent 5,096,737, March 17, 1992. [Pg.1103]

Metallic thin-film media almost always are composed of Co alloys. Cobalt is chosen because of its high moment, but pure Co (either plated or vacuum-deposited) has a... [Pg.253]

Oxide-Supported Metal Thin-Film Catalysts The How and Why... [Pg.15]

These studies indicate that the charge transfer at the metal-oxide interface alters the electronic structure of the metal thin film, which in turn affects the adsorption of molecules to these surfaces. Understanding the effect that an oxide support has on molecular adsorption can give insight into how local environmental factors control the reactivity at the metal surface, presenting new avenues for tuning the properties of metal thin films and nanoparticles. Coupled with the knowledge of how particle size and shape modify the metal s electronic properties, these results can be used to predict how local structure and environment influence the reactivity at the metal surface. [Pg.16]

OXIDE-SUPPORTED METAL THIN-FILM CATALYSTS... [Pg.17]

K. Fushinobu, D. Takahashi, and K. Okazaki. Micromachined metallic thin films for the gas diffusion layer of PEFCs. Journal of Power Sources 158 (2006) 1240-1245. [Pg.290]

The required degree of understanding of the physical properties of metal thin films used for interconnects on chips is illustrated by the following example. It was found that the performance of conductors on chips, A1 or Cu, depends on the structure of the conductor metal. For example, Vaidya and Sinha (10) reported that the measured median time to failure (MTF) of Al-0.5% Cu thin films is a function of three microstructural variables (attributes) median grain size, statistical variance (cr ) of the grain size distribution, and degree of [111] fiber texture in the film. [Pg.322]

Giant magnetostriction in rare-earth-transition metal thin films.114... [Pg.90]

Herzer, G.. 1991, in Proc. Int. Symp. on 3d Transition-Demi Metal Thin films. Magnetism and Processing (Japan Soc. for the Promotion of Science, Sendai, Japan) p. 307. [Pg.195]

Figure 9.9 Assembly of sandwich-type optically transparent thin-layer electrochemical cell, a, Glass or quartz plates b, adhesive Teflon tape spacers c, minigrid working electrode d, metal thin-film working electrode, which may be used in place of (c) e, platinum wire auxiliary electrode f, silver-silver chloride reference electrode g, sample solution h, sample cup. [Adapted with permission from T.P. DeAngelis and W.R. Heineman, J. Chem. Educ. 53 594 (1976), Copyright 1976 American Chemical Society.]... Figure 9.9 Assembly of sandwich-type optically transparent thin-layer electrochemical cell, a, Glass or quartz plates b, adhesive Teflon tape spacers c, minigrid working electrode d, metal thin-film working electrode, which may be used in place of (c) e, platinum wire auxiliary electrode f, silver-silver chloride reference electrode g, sample solution h, sample cup. [Adapted with permission from T.P. DeAngelis and W.R. Heineman, J. Chem. Educ. 53 594 (1976), Copyright 1976 American Chemical Society.]...
Figs. 11.5 and 11.6 show eight XRD patterns as measured along row C. In Fig. 11.5, the dominant (111) diffraction peak for 100% Pt appears at around 20=40°, as expected. The absence of diffraction peaks of pure Pt or Fe in the multi-metal XRD patterns is indicative of complete alloying of the multi-metal thin films by interlayer diffusion. [Pg.278]

Fig. 12. A resistive metal thin film heater is formed on the upper glass. Using the liquid-gas phase system of methyl chloride, the generated pressure is increased and the response time reduced. The dynamic range of this type of valve can be broad by adjusting cavity shape, quantity of gas and liquid molecules. Fig. 12. A resistive metal thin film heater is formed on the upper glass. Using the liquid-gas phase system of methyl chloride, the generated pressure is increased and the response time reduced. The dynamic range of this type of valve can be broad by adjusting cavity shape, quantity of gas and liquid molecules.
N.H. Due, Giant magnetostriction in lanthanide-transition metal thin films 1... [Pg.462]

Measurements were performed upon noble and transition metal thin films, deposited by magnetron sputtering onto Si substrates. Since the /3) tensor was expected to depend upon the detailed structure of the sample, X-ray reflectivity measurements were performed to determine the thickness,... [Pg.210]


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See also in sourсe #XX -- [ Pg.287 , Pg.290 ]




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Ceramic metallization technologies thin-film

Dense metal membranes thin films, porous substrates

Evaporation/sputtering, thin metal films

Films metallic

Gasgnier, The intricate world of rare earth thin films metals, alloys, intermetallics, chemical compounds

Gate dielectric thin-metal films

Giant magnetostriction in lanthanide—transition metal thin films

Layered metal phosphonate thin films

Magnetostriction transition metal thin films

Metal Oxide-Based Thin-Film Transistors

Metal alloy, thin film

Metal carbides thin films

Metal films

Metal nitrides, thin films

Metal-based thin-film electrodes

Metal-containing polymers thin film structures

Metallic Surfaces and Thin Films

Metallic surfaces, thin films

Metallic thin-film electrodes

Metals thin films

Neutral metal complexes thin films

Precursors Towards Metal Chalcogenide Thin-Films and Quantum Dots

Processes During Aging in Ultra-thin Epoxy Films on Metals

Reactions of Amalgam-Forming Metals on Thin Mercury Film Electrodes

Solar metal thin films

Thin Metal Film Sensors

Thin Metal Films in Gas Sensors

Thin film metal/metallic

Thin film metal/metallic

Thin film metallic ceramics

Thin film metallization

Thin film metallization

Thin film production by the sputtering of metals

Thin films metal oxide gels

Thin films metallizing plastics

Thin films noble metal

Thin films, complex metal hydrides

Thin metal film electrode

Thin metallic

Thin oxide film formation, metal

Thin oxide film formation, metal chromium

Thin oxide film formation, metal copper

Thin oxide film formation, metal mechanism

Thin oxide film formation, metal nickel

Thin oxide film formation, metal physical

Thin oxide film formation, metal protective layer

Thin oxide film formation, metal silicon

Thin oxide film formation, metal tantalum

Thin oxide film formation, metal values

Thin-film metallization corrosion

Thin-film multilayer metal deposition processes

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