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Characterization of growth and thermal behaviors of thin films for the advanced gate stack grown by chemical vapor depositionTaek Soo, Jeon 27 April 2011 (has links)
Not available / text
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The growth and characterization of group III-nitride transistor devices grown by metalorganic chemical vapor depositionWong, Michael Ming 27 July 2011 (has links)
Not available / text
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The design, processing, and characterization of group III-nitride diode devices grown by metalorganic chemical vapor depositionZhu, Tinggang 27 July 2011 (has links)
Not available / text
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Equilibrium partial vapor pressures over solutions of the diethylene triamine--sulphur dioxide--water systemRoberson, Alva Harold, 1900- January 1937 (has links)
No description available.
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Chemical vapor deposition of silicon onto silver surfacesEdgar, William Frank, 1939- January 1973 (has links)
No description available.
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Design and synthesis of volatile compounds for chemical vapor deposition of electronic materialsMatthews, Jason Shastri 05 1900 (has links)
No description available.
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Design and synthesis of comonomers to enhance the physical properties of poly(ethylene terephthalate)Hibbs, Michael R. 05 1900 (has links)
No description available.
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Modeling of the chemical vapor deposition of YBa₂Cu₃O, TiB₂, and SiC thin films onto continuous ceramic towsHanigofsky, John 08 1900 (has links)
No description available.
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Vapourliquid equilibria in branched-chain systems: prediction by an analytical group solution modelSayegh, Selim George January 1974 (has links)
No description available.
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Interaction between a Molten Smelt Droplet and Water at Different TemperaturesJin, Xiaoxing 28 November 2013 (has links)
In a kraft recovery dissolving tank, high temperature molten smelt droplets fall into an aqueous solution and dissolve. The rapid heat transfer between molten smelt and water can lead to violent dissolving tank operation, and in severe cases, a dissolving tank explosion. In this study, an experimental apparatus was built to investigate the interaction between a molten synthetic smelt droplet and water. Smelt-water interaction was documented, and the effects of water and smelt temperatures on droplet explosion probability, explosion delay time, and explosion intensity were examined. The results show that explosions always occur below a lower critical water temperature, which is a function of smelt temperature, and never explodes above an upper critical water temperature. Up to the upper critical water temperature, as the water temperature increases, the explosion probability decreases, and the explosion delay time and the explosion intensity increases. A Smelt-Water Interaction Temperature (SWIT) diagram was constructed to describe the explosion probability at different smelt and water temperatures.
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