Fabric technologies

Fabrication technologies for ah electronic ceramic materials have the same basic process steps, regardless of the appHcation powder preparation, powder processing, green forming, and densiftcation. 

Fabrication Technology. Stabili2iag additives must be uniformly distributed within the starting powders for 2irconia ceramics. 

Due to thermal effects such devices must operate at temperatures well below the electron charging energy of 2C. With state-of-the-art fabrication technology, the capacitance is typically of the order 10 F, which requires temperatures below 1 K. Even with further miniaturisation, it is unlikely that these devices will be feasible at room temperature. Even so, there has been work in modeling this type of device for use in digital circuits (73). 

R Eichinger, H. J. Rath, and H. Schwenke. In Semiconductor Fabrication Technology and Metrology. ASTM STP990. (D. C. Gupta, ed.) American Society for Testing and Materials, 305, 1989. 

T. A. Core, W. K. Tsang, S. J. Sherman. Fabrication technology for an integrated surface-machined sensor. Solid State Technol 3(5 39—44, 1993. 

Kandlikar SG, Grande W (2002) Evolution of micro-channel flow passages - thermo-hydraudc performance and fabrication technology. In Proceedings of IMECE ASME International Mechanical Engineering Congress and Exposition, New Orleans, 17-22 November 2002, IMECE 2002-32043, pp 1-13... 

The design of the Owl 100-m telescope relies extensively on proven fabrication technologies, in particular on mass- or serial-production schemes, and incorporates several distinct wavefront control loops. The overall characteristics of the current design are listed in Table 1. 

Hsieh, D. S. T., Controlled Release Systems Fabrication Technology, Vol. 2, CRC Press, Boca Raton, 1988. 

ScHLAAK, H. F., Fabrication technologies and economic aspects for components in microtechnology, in Proceedings of the VDE World Microtechnologies Congress, MICRO. tec 2000, pp. 649-653 (25-27 September 2000), VDE Verlag, Berlin, EXPO Hannover. 

Dietrich, T. R., Ehrfeld, W., Lacher, M., Kramer, M., Speit, B., Fabrication technologies for microsystems utilizing photoetchable glass, Micoelectron. Eng. 

After synthesis, the modified carborane-siloxane gums were fabricated into shaped components using standard siloxane vulcanization and fabrication technology. Di-chlorobenzyl peroxide (1% by wt) was used as the cross-linking agent and mixed into the polymer formed in scheme 7. Shaped rubber components were readily prepared by compression molding operations at 70°C. Postcure operations were typically at 120°C for 24 hours. 

J. Newman, S. White, I. Tothill, and A.P. Turner, Catalytic materials, membranes, and fabrication technologies suitable for the construction of amperometric biosensors. Anal. Chem. 67, 4594-4599 (1995). 

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