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Fabric design

In the foUowing descriptions of some widely used repeUency tests, the term fabric designates any woven, knitted, or nonwoven textile. [Pg.308]

Research. Much of the research on commercial-size distiUation equipment is being done by Fractionation Research, Inc. (FRI), a nonprofit, industry-sponsored, research corporation. The industrial sponsors are fabricators, designers, and constmctors, or users of distiUation equipment. PubHcations include Hquid mixing on sieve plates (91), bubble cap plate efficiency (92), and sieve plate efficiency (93,94). A motion picture of downcomer performance is also avaUable (95). References 96 and 97 cover the Hterature from 1967 to 1990. [Pg.175]

With all types of plastic processes, troubleshooting guides are set up to take fast, corrective action when products do not meet their performance requirements. This problem-solving approach fits into the overall fabricating-design interface. One brief example of troubleshooting an RP/composite is in Table 8-44. [Pg.546]

Technology Materials Fabrication Design Size limit NDT Repair... [Pg.45]

Based on factors such as cast, mechanical properties, physical properties, ease of fabrication (design) and the corrosion resistance data available in the literature the choice of materials can lead to a short list of two or three materials. At this stage it is prudent that the engineer design prototype laboratory scale model equipment from the short-list of selected metals or alloys, and determine the corrosion rates in the environment of interest. These accelerated tests will enable the engineer to select the best candidate material, making proper allowance for the corrosion of the metal or alloy over the lifetime of the equipment. [Pg.67]

Finally, for any unusual or uncommon containers and closures, sufficient information about the materials of fabrication, design performance, and other information that conclusively demonstrates their suitability for use with dosage form should be provided. [Pg.209]

Most flame-retardant finished textiles are excluded from the Oko-Tex Standard 100 label. In all cases, the durability of the finish is often a problem. It is the responsibility of the fabric finisher to address these issues if commercial flame-retardant fabrics are to be produced. An alternative for the fabric designer without most of the named problems is the use of flame-resistant modified fibres, but... [Pg.115]

Since the most probable time for long-term solar exposure is in the summer, the most likely candidates for UV protective finishes are lightweight woven and knitted fabrics intended for producing shirts, blouses, T-shirts, swimwear, beachwear, sportswear, and the like. Indnstrial fabrics designed for awnings, canopies, tents and blinds may also benefit from a UV-protective treatment. [Pg.158]

Another reason the process engineer must have an appreciation of methods of fabrication, design codes, and other constraints on pressure vessel design is that these constraints often dictate limits on the process conditions. Mechanical constraints can cause significant cost thresholds in design, for example, when a costlier grade of alloy is required above a certain temperature. [Pg.962]

Ammonium zirconyl carbonate, (NH4)3[ZrOH(COj)3] 2H2O is a constituent of flame-retarding systems used for cotton fabrics designed for outdoor use, such as tenting. It is also employed as a water repellent in floor polishes and paper coatings, for the production of zirconium oxide films and as an adhesive in lithography. The anion has a polymeric, hydroxide-bridged structure (5). [Pg.1013]

From the perspective of the clinical laboratory, miniaturization has been a long-term trend in clinical diagnostics instrumentation. For example, capillary electrophoresis instruments (see Chapter 5) and mass spectrometers have been implemented on microchips of silicon, glass, or plastic. In actuality, however, these devices are not manufactured on a nanometer scale but rather on a micrometer scale. Consequently, this chapter will be concerned with microminiaturized devices whose key components (1) are approximately 100 micrometers in size, (2) are employed in analytical measurement, and (3) require special forms of fabrication designed for microdevices. Although this chapter does not attempt to discuss submicron or molecular structures at the nanometer scale, it should be noted that applications discussed later in it require only nanoliter (nL) quantities of a sample or deal with individual cells that may have cell volume in the picoHter (pL) to nL range. [Pg.245]

Judy JW (2001) Microelectromechanical systems (MEMS) fabrication, design and apphca-tion. Smart Mater Struct 10 1115-1134... [Pg.219]

Technology Materials (sizes in milli-inches) Fabrication Design Size limit, ft 2 NDT Repair... [Pg.280]

Description. Pick two patterns that exhibit translational and glide reflective symmetry (e.g., wallpaper, borders, fabric design). In a short essay, discuss which pattern you prefer and why. by comparing and contrasting the patterns. You will need to describe... [Pg.118]

The fabric design (weaving pattern, fibre density, etc.) is determinant for the POF bend. The radius of fibre curvature in the fabric is expressed by the radius of the circle that passes through three points, X, Y and Z, that are shown in Figure 8.8. [Pg.183]

In order to adapt to the environment underground, mining protective clothing in the fabric design must meet certain requirements. Here first on the market at present the main several requirements of protective clothing fabrics. [Pg.552]

NEW COAL MINE WORKERS OF PROTECTIVE CLOTHING FABRICS DESIGN TRAIN OF THOUGHT... [Pg.554]

From what has been discussed above, protective clothing fabrics design scheme can have the following kinds. [Pg.554]

J. Judy, Microelectromechanical systems (MEMS) Fabrication, design and applications. Smart Materials and Structures, 10(6), 1115-1134, 2001. [Pg.382]


See other pages where Fabric design is mentioned: [Pg.147]    [Pg.296]    [Pg.442]    [Pg.252]    [Pg.377]    [Pg.292]    [Pg.342]    [Pg.231]    [Pg.1013]    [Pg.24]    [Pg.186]    [Pg.112]    [Pg.132]    [Pg.312]    [Pg.342]    [Pg.321]    [Pg.26]    [Pg.2]    [Pg.294]    [Pg.555]    [Pg.384]    [Pg.553]    [Pg.100]    [Pg.104]    [Pg.74]   
See also in sourсe #XX -- [ Pg.205 , Pg.206 , Pg.207 ]




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