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Fiber product

Table 2. Worldwide Synthetic Fiber Production by Fiber, 10 t... Table 2. Worldwide Synthetic Fiber Production by Fiber, 10 t...
Crimp. The tow is usually relaxed at this point. Relaxation is essential because it gready reduces the tendency for fibrillation and increases the dimensional stabiUty of the fiber. Relaxation also increases fiber elongation and improves dye diffusion rates. This relaxation can be done in-line on Superba equipment or in batches in an autoclave. Generally saturated steam is used because the moisture reduces the process temperatures required. Fiber shrinkage during relaxation ranges from 10 to 40% depending on the temperature used, the polymer composition used for the fiber, and the amount of prior orientation and relaxation. The amount of relaxation is also tailored to the intended apphcation of the fiber product. [Pg.282]

Textile Fibers Products Identification A.ct, US. Public Eaw 85—897 U.S. Federal Trade Commission, Washington, D.C., effective Mar. 3,1960. [Pg.310]

Texturing. The final step in olefin fiber production is texturing the method depends primarily on the appHcation. For carpet and upholstery, the fiber is usually bulked, a procedure in which fiber is deformed by hot air or steam jet turbulence in a no22le and deposited on a moving screen to cool. The fiber takes on a three-dimensional crimp that aids in developing bulk and coverage in the final fabric. Stuffer box crimping, a process in which heated tow is overfed into a restricted oudet box, imparts a two-dimensional sawtooth crimp commonly found in olefin staple used in carded nonwovens and upholstery yams. [Pg.319]

The tendency of the strong, highly crystalline fibers to fibnUate, ie, to develop a hairy surface on wet-abrasion has, for the textile appUcations, been minimized by process changes both in fiber production and fabric manufacture. However, for nonwoven or speciaUty paper appUcations, this property can aUow potential users to develop ceUulosic microfibers during processing. [Pg.352]

Worldwide demand for DMF in acryhc fiber production has held up better than in the United States. The high solubiUty of polyacrylonitrile in DMF, coupled with DMF s high water miscibility, makes it an attractive solvent for this appHcation. Its principal competition in this area comes from DMAC. [Pg.514]

Glass fibers <3 fim are to be avoided because these are classed as respirable fibers which can enter and damage lung passages. Most glass fiber products have sufficient fiber lengths to prevent lung entry even if their diameters are <3 fim. [Pg.69]

Eig. 11. Composite hoUow-fiber production scheme (PEI = polyethyleneimine TDI = toluene 2,4-diisocyanate). Anisotropic (porous skin) polysulfone hoUow fiber is roUed into bath A and is lifted vertically (to avoid droplet formation) into a beating tube. The fiber is then passed through bath B and is... [Pg.151]

Worldwide synthetic fiber production for 1990 was 17.5 x 10 t (see Fibers survey). [Pg.369]

Fibrex Nickel Fibers, Product Brochure, National Standard Co., Mishawaka, Ind., 1987. [Pg.16]

A significant percentage of U.S. staple fiber production is packaged ia bales of extmsion coated spunbonded fabrics, so treated to render the fabric impervious. Synthetic fibers have been shipped worldwide ia this manner with great success. [Pg.174]

When selecting a particular paster adhesive, coating material, and coating process for sohd fiber packaging, the fact that sohd fiberboard lacks the open-flute stmcture (to facihtate exit of moisture from internal phes of paperboard) should be considered. It is generally desirable to minimize the amount of process water added with the adhesive or coating with sohd fiber products. Moisture trapped in the filler phes can result in pin holes or bhsters in the coating and/or warp of the sheet (15). [Pg.519]


See other pages where Fiber product is mentioned: [Pg.110]    [Pg.12]    [Pg.18]    [Pg.264]    [Pg.265]    [Pg.265]    [Pg.265]    [Pg.274]    [Pg.279]    [Pg.283]    [Pg.285]    [Pg.285]    [Pg.286]    [Pg.307]    [Pg.307]    [Pg.316]    [Pg.318]    [Pg.327]    [Pg.332]    [Pg.333]    [Pg.345]    [Pg.348]    [Pg.351]    [Pg.354]    [Pg.354]    [Pg.363]    [Pg.423]    [Pg.513]    [Pg.514]    [Pg.514]    [Pg.258]    [Pg.153]    [Pg.145]    [Pg.153]    [Pg.219]    [Pg.219]    [Pg.220]    [Pg.293]   
See also in sourсe #XX -- [ Pg.7 ]

See also in sourсe #XX -- [ Pg.7 ]




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Acrylic fibers production

Acrylic fibers specialized products

Bast fiber production

CVD Production of Optical Fibers

Carbon fibers production

Cellulose fiber production

Ceramic Fiber Products

Ceramic fibers production

Ceramic fibers production scheme

Cereal products dietary fiber content

Dietary fiber cereal products

Engineering Aspects of MIEC Hollow Fiber Membranes for Oxygen Production

Fiber Production using a Cellulosic based Precursor

Fiber Production using a PAN Precursor

Fiber Production using a Pitch based Precursor

Fiber engineering for advanced medical and healthcare products

Fiber grade products

Fiber healthcare products

Fiber production

Fiber quality, spinning production

Fiber reinforced polymers production

Fiber-reinforced polymer products

Fibers and fiber products

Fibers product forms

High Modulus Fiber Production

Hollow-fiber bioreactor continuous production

Japanese fiber production

Mesophase carbon fiber production

Natural fibers production

New fiber production methods

Nylon fibers production

Polyester fibers production

Polyethylene, crystalline Fiber production

Polypropylene fibers production

Polypropylene fibers, production processes

Production Technology of Fiber-Reinforced RubCon

Production hollow-fiber bioreactor

Production of Filaments and Fibers

Production of PAN-based carbon fibers

Production of Particles and Fibers

Production of Staple Fiber Yarns with Defined Properties

Production of Staple Fibers

Production of carbon fibers

Production of high-performance ballistic-proof fibers from nanotechnology

Production procedures using carbon fiber

Products, fiber-reinforced polymer composites

Semifinished fiber products

Silk fibers production process

Split fiber production

Stimulation of C-fibers and Tachykinin Release by Mast Cell Products

Synthetic staple fiber production

Textile products produced from alternative fibers

The CVD Process for Fiber Production

Thermal Conductivities of Fiber-Based Products

Vapor grown carbon fibers production

Vegetable fibers world production

Viscose staple fiber production

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