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Metallic fiber

Metallic dyes Metallic fibers Metallic glass Metallic pinwheels Metallic soaps... [Pg.608]

Apparel and other finished products Cutting, sewing, sizing, pressing Cloth, fibers, metals, plastics, rubber... [Pg.2233]

This demand for new devices initiated worldwide research and development programs in the field of "sensors and actuators". Many generic sensor technologies were examined, from which the thin- and thick-film, glass fiber, metal oxides, polymers, quartz and silicon technologies are the most prominent. [Pg.406]

Liquids gasoline, acetone, ether, pentane Solids plastics, wood dust, fibers, metal particles Gases acetylene, propane, carbon monoxide, hydrogen... [Pg.226]

Short-fiber composites fabrication of, 26 766 Short fiber metal-matrix composites, casting process for, 76 168 Short fiber web layering systems, 77 504 Short oil alkyds, 2.T48 Short random fiber reinforcement,... [Pg.835]

But wait. Let s remember that chemicals have virtually transformed the modern world in extraordinarily beneficial ways. During the past 100 years the chemical industry has offered up, and we have eagerly consumed, thousands of highly useful materials and products. Among these products are many that have had profoundly beneficial effects on human health - antibiotics and other remarkable medicinal agents to prevent and cure diseases, pesticides to protect crops, preservatives to protect the food supply, plastics, fibers, metals and hundreds of other materials that have enhanced the safety and pleasures of modern... [Pg.348]

Classification of fiber-metal matrix composite systems ... [Pg.16]

Conductive additives Carbon black, carbon-graphite fibers, metals, metallized fillers/reinforcements... [Pg.636]

In addition to the analysis of physical structural characteristics of textile fabric pseudomorphs, chemical information has been obtained. On bronze and copper artifacts, the pseudomorphs are composed of malachite, tenorite, and cuprite (I, 2), the formation of which probably requires moist conditions, a corrosive metal, and optimum fiber-metal contact (I). Trace elements in their structure vary from object to object and site to site (1-3), but the relationship of these elements and the fiber, metal, and soil composition is not yet known. [Pg.276]

Several other ICF reactor concepts use liquid metal walls (Ii W). These include the Los Alamos National Laboratory (LANL) wetted wall concept, the Bechtel concept called EAGLE (which uses a lithium spray in the chamber), the Lawrence Livermore National Laboratory (LLNL) concept called JADE (which uses a fiber-metal structure to control liquid metal flow), and the German/University of Wisconsin concept called HIBALL (which uses carbide "socks" to control liquid metal flow). [Pg.502]

For the fiber-metal insulator, the beta-Ti alloys, Ti-13V-llCr-3Al, Ti-2.5Al-16V, and Ti-7Al-4Mo are the current selections, based on existing commercial alloys. Improved Ti alloys or use of a Nb alloy layer next to the Cauldron wall may be necessary to avoid creep at the highest temperatures. A helium sweep gas would be used to remove tritium from the porous fiber-metal channel. [Pg.513]

Greatly Improves knitting properties of yarn by reducing fiber/metal friction by 50-60% in many cases. [Pg.336]

Provides very low fiber/metal friction base for over-oiling with sewing thread finishes. [Pg.336]

Commonly used textile lubricants to reduce fiber/metal and fiber/fiber friction. [Pg.576]

Macheret, J. and Bucci, R.J. (1993) A crack Growth Resistance Curve Approach to Fiber/Metal Laminate Fracture Toughness Evaluation , Eng. Frac. Mech. Vol.45, N0.6, pp.729-739. [Pg.364]

Gregory, M.A. and Roebroels, G.H.J.J. (1991) Fiber/metal laminates a solution to weight, strength and fatigue problems , 30 Ann. Conf. of Metallurgical Society of CIM, Ottawa, Canada. [Pg.364]

Comparing and Contrasting Match each of the following research topics with the branch of chemistry that would study it water pollution, the digestion of food in the human body, the composition of a new textile fiber, metals to make new coins, a treatment for AIDS. [Pg.22]

In special tank furnaces, e.g. for the manufacture of textile glass fibers, metal regenerators have been successful for heat recuperation. The regular reversal of the gas direction is then not necessary, simplifying temperature control over that with regenerative heat recuperation. [Pg.333]

The high frictional coefficient (0.4 to 0.5 compared with < 0.1 for glass fibers) of asbestos fibers is crucial to its utilization in the frictional lining sector. In the manufacture of brake and clutch linings 20 to 60% asbestos is incorporated together with fillers, metal chips and preferably phenol resins and rubber into a composite material, which has to satisfy many requirements. Currently there are asbestos-free so-called semimetallic brake linings, which consist of mixtures of metal fibers, metal powders, cellulose fibers, aluminum silicate fibers and mineral wool bonded with synthetic resins. [Pg.363]

Porous metallic structures have been used for electrocatalysis (Chen and Lasia, 1991 Kallenberg et al., 2007). Porous electrodes are made with conductive materials that can degrade under high temperatures at high anodic potential conditions. This last problem is of less importance for fuel cell anodes, which operate at relatively low potentials, but it can be of importance for electrochemical reactors. Porous column electrodes prepared by packing a conductive material (carbon fiber, metal shot) forming a bar are frequently used. Continuous-flow column electrolytic procedures can provide high efficiencies for electrosynthesis or removal of pollutants in industrial situations. Theoretical analysis for the electrodeposition of metals on porous solids has been provided by Masliy et al. (2008). [Pg.266]


See other pages where Metallic fiber is mentioned: [Pg.608]    [Pg.283]    [Pg.544]    [Pg.1188]    [Pg.182]    [Pg.31]    [Pg.484]    [Pg.142]    [Pg.279]    [Pg.172]    [Pg.161]    [Pg.284]    [Pg.8]    [Pg.512]    [Pg.512]    [Pg.513]    [Pg.514]    [Pg.308]    [Pg.279]    [Pg.330]    [Pg.56]    [Pg.50]    [Pg.85]    [Pg.102]    [Pg.103]   
See also in sourсe #XX -- [ Pg.29 ]




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Adhesive joints fiber-metal laminate

Carbon-fiber composites with metal matrices

Carbon-fiber, metal-matrix

Carbon-fiber, metal-matrix fabrication

Cooling metal fiber

Fiber for Reinforcement of Metal Matrices

Fiber sintered metal fibers

Fiber studies metal loaded fibers

Fiber-Reinforced Metal Matrix Composites

Fiber-Reinforced Metals

Fiber-metal laminates, aerospace structural

Fiber-reinforced directed metal oxidation

Fiber-reinforced directed metal oxidation composites

Fibers directed metal oxidation

Fibers in Metal Matrices

Fibers metal loaded

Glass-reinforced fiber metal laminate

METAL-MATRIX, CARBON-FIBER COMPOSITES

Metal Fibers (MTF)

Metal Reinforcement With Inorganic Fibers

Metal boron fibers

Metal fibers

Metal fibers

Metal fibers previous studies

Metal steel Fibers

Metal tungsten fibers

Metal-doped plastic optical fibers

Metallic fibers Taylor process

Metallic fibers applications

Metallic fibers microstructure

Metallic fibers processing

Metallic fibers properties

Metallic fibers spinning

Metallic fibers superconductors

Metallic fibers, description

Metallic fillers steel fibers

Metallized fibers

Metallized fibers fabrication

Metallized fibers types

Mineral and Metallic Fibers

Sintered metal fibers

Sintered metal fibers catalyst

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