Technical Product Guide
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Natural Materials for the Textile Industry Alain Stout
English by Alain Stout For the Textile Industry Natural Materials for the Textile Industry Alain Stout Compiled and created by: Alain Stout in 2015 Official E-Book: 10-3-3016 Website: www.TakodaBrand.com Social Media: @TakodaBrand Location: Rotterdam, Holland Sources: www.wikipedia.com www.sensiseeds.nl Translated by: Microsoft Translator via http://www.bing.com/translator Natural Materials for the Textile Industry Alain Stout Table of Contents For Word .............................................................................................................................. 5 Textile in General ................................................................................................................. 7 Manufacture ....................................................................................................................... 8 History ................................................................................................................................ 9 Raw materials .................................................................................................................... 9 Techniques ......................................................................................................................... 9 Applications ...................................................................................................................... 10 Textile trade in Netherlands and Belgium .................................................................... 11 Textile industry ................................................................................................................... -
Choosing the Proper Short Cut Fiber for Your Nonwoven Web
Choosing The Proper Short Cut Fiber for Your Nonwoven Web ABSTRACT You have decided that your web needs a synthetic fiber. There are three important factors that have to be considered: generic type, diameter, and length. In order to make the right choice, it is important to know the chemical and physical characteristics of the numerous man-made fibers, and to understand what is meant by terms such as denier and denier per filament (dpf). PROPERTIES Denier Denier is a property that varies depending on the fiber type. It is defined as the weight in grams of 9,000 meters of fiber. The current standard of denier is 0.05 grams per 450 meters. Yarn is usually made up of numerous filaments. The denier of the yarn divided by its number of filaments is the denier per filament (dpf). Thus, denier per filament is a method of expressing the diameter of a fiber. Obviously, the smaller the denier per filament, the more filaments there are in the yarn. If a fairly closed, tight web is desired, then lower dpf fibers (1.5 or 3.0) are preferred. On the other hand, if high porosity is desired in the web, a larger dpf fiber - perhaps 6.0 or 12.0 - should be chosen. Here are the formulas for converting denier into microns, mils, or decitex: Diameter in microns = 11.89 x (denier / density in grams per milliliter)½ Diameter in mils = diameter in microns x .03937 Decitex = denier x 1.1 The following chart may be helpful. Our stock fibers are listed along with their density and the diameter in denier, micron, mils, and decitex for each: Diameter Generic Type -
Yarn Numbering Systems
TECHNICAL BULLETIN 6399 Weston Parkway, Cary, North Carolina, 27513 • Telephone (919) 678-2220 TRI 1014 YARN NUMBERING SYSTEMS © 2003 Cotton Incorporated. All rights reserved; America’s Cotton Producers and Importers. TABLE OF CONTENTS Page INTRODUCTION 1 DIRECT SYSTEMS 1 INDIRECT SYSTEMS 2 CONVERSION 4 PLIED YARNS 4 YARN DIAMETER 5 YARN NUMBERING SYSTEMS - TABLE 1 6 CONVERSION FACTORS - TABLE 2 7 YARN NUMBERING SYSTEMS INTRODUCTION Textiles are often sold on a weight basis and consequently it is natural to express the size of "thickness" of a yarn in terms of weight (or mass). There are two basic ways in which this may be done. These are: (a) by saying how much a given length of yarn weighs, or (b) by saying what length of yarn one would have in a given weight. Generally these are known as the direct and indirect systems of yarn numbering, respectively. In other words: Weight(or mass) Direct yarn number = Length Length Indirect yarn number = Weight(or mass) It will be noted that one is the inverse of the other. In the first case, the number gets larger as the yarn or strand gets coarser. In the second case, the number gets smaller as the yarn or strand gets coarser. Each system has its advantages and disadvantages and each has found areas in which, by custom, it is used. It so happens that because long, thin strands are usually involved, the length figures are usually large and the weight figures are small. Consequently, the yarn numbers would get impossibly large or impossibly small unless special units are used. -
Investigation of the Mechanical Properties of a Carbon Fibre-Reinforced Nylon Filament for 3D Printing
machines Article Investigation of the Mechanical Properties of a Carbon Fibre-Reinforced Nylon Filament for 3D Printing Flaviana Calignano 1,* , Massimo Lorusso 2 , Ignanio Roppolo 3 and Paolo Minetola 1 1 Department of Management and Production Engineering, Politecnico di Torino, Corso Duca degli Abruzzi 24, 10129 Turin, Italy; [email protected] 2 Istituto Italiano di Tecnologia, Center for Sustainable Future Technologies IIT@Polito, Corso Trento 21, 10129 Turin, Italy; [email protected] 3 Department of Applied Science and Technology, Politecnico di Torino, Corso Duca degli Abruzzi 24, 10129 Turin, Italy; [email protected] * Correspondence: fl[email protected]; Tel.: +39-011-090-7218 Received: 19 July 2020; Accepted: 2 September 2020; Published: 4 September 2020 Abstract: Additive manufacturing (i.e., 3D printing) has rapidly developed in recent years. In the recent past, many researchers have highlighted the development of in-house filaments for fused filament fabrication (FFF), which can extend the corresponding field of application. Due to the limited mechanical properties and deficient functionality of printed polymer parts, there is a need to develop printable polymer composites that exhibit high performance. This study analyses the actual mechanical characteristics of parts fabricated with a low-cost printer from a carbon fibre-reinforced nylon filament. The results show that the obtained values differ considerably from the values presented in the datasheets of various filament suppliers. Moreover, the hardness and tensile strength are influenced by the building direction, the infill percentage, and the thermal stresses, whereas the resilience is affected only by the building direction. Furthermore, the relationship between the mechanical properties and the filling factor is not linear. -
Man-Made Staple Fibres
Chapter 55 Man-made staple fibres Note. 1.- Headings 55.01 and 55.02 apply only to man-made filament tow, consisting of parallel filaments of a uniform length equal to the length of the tow, meeting the following specifications : (a) Length of tow exceeding 2 m; (b) Twist less than 5 turns per metre; (c) Measuring per filament less than 67 decitex; (d) Synthetic filament tow only : the tow must be drawn, that is to say, be incapable of being stretched by more than 100 % of its length; (e) Total measurement of tow more than 20,000 decitex. Tow of a length not exceeding 2 m is to be classified in heading 55.03 or 55.04. _________________ Heading H.S. Code 55.01 Synthetic filament tow. 5501.10 - Of nylon or other polyamides 5501.20 - Of polyesters 5501.30 - Acrylic or modacrylic 5501.40 - Of polypropylene 5501.90 - Other 55.02 Artificial filament tow. 5502.10 - Of cellulose acetate 5502.90 - Other 55.03 Synthetic staple fibres, not carded, combed or otherwise processed for spinning. - Of nylon or other polyamides : 5503.11 -- Of aramids 5503.19 -- Other 5503.20 - Of polyesters 5503.30 - Acrylic or modacrylic 5503.40 - Of polypropylene 5503.90 - Other 55.04 Artificial staple fibres, not carded, combed or otherwise processed for spinning. 5504.10 - Of viscose rayon 5504.90 - Other 55.05 Waste (including noils, yarn waste and garnetted stock) of man- made fibres. 5505.10 - Of synthetic fibres 5505.20 - Of artificial fibres Heading H.S. Code 55.06 Synthetic staple fibres, carded, combed or otherwise processed for spinning. -
This Tutorial Will Explain What a Balanced Plied Yarn Is, and H
An HJS Studio Tutorial: Spinning Silk Caps I am proud to welcome Carol Weymar, a self-taught spinner and dyer of silk caps. I was much struck by the beauty of her work when I saw her website, so I asked her to write an ar- ticle, as silk is something I have no skill spinning. I hope you'll be as inspired by her expla- nation as I was! About Silk Caps Silk caps are made from cultivated cocoons that have been degummed and stretched over a frame shaped like a bell. They consist of a number of extremely thin layers; each layer is one cocoon. A cap "bell" is roughly two dozen caps, weighing about a pound altogether, which are fastened together at their tops and covered by one large cap whose edges are drawn out and tied together at the bottom to make a neat bundle. Cap silk is one of the most underrated types of silk available to the handspinner. It has its quirks, certainly, but mastering this form of silk is well worth your effort. It displays the beau- tiful luster of all its sister silks, but has the advantage of being a nearly continuous fiber. This means you can spin it to a very fine thread and it will be strong. It makes an excellent warp. It is very versatile; you can spin it into beautiful yarns, you can draw it into fine roving and knit or embroider with it in its unspun form, and you can blend it with other fibers to add bright color and gleaming highlights. -
Sheep, Fleece, Wool, Staple Length, Fiber Diameter
International Journal of Textile Science 2015, 4(5): 97-101 DOI: 10.5923/j.textile.20150405.01 Variation in Fleece Characteristics of Tunisian Sheep T. Harizi1,*, F. Abidi1, R. Hamdaoui2, Y. Ben Ameur2 1Textile Engineering Laboratory, University of Monastir, Monastir, Tunisia 2Technical Center of Creation, Innovation, and Supervision in Carpet and Weaving, Tunis, Tunisia Abstract This experiment was aimed to identify wool quality of Tunisian sheep breeds. Fiber characteristics of different ages and various sheep breeds were studied. A total of 84 sheep were used in this study. Results show that the factor 'breed' had a highly significant effect on all controlled parameters accept scoured yield and fibre length. Breed was the most important factor. By conducting well-planned sorting, “Fine Queue of west” sheep breed can supply the wool needed for textile industries. The wool of other sheep breeds can be used in handmade carpets. Keywords Sheep, Fleece, Wool, Staple length, Fiber diameter special criteria. These include fibre diameter, fibre length, 1. Introduction luster (’shinyness’), crimp (’wavyness’) and percentage yield of clean fibre from raw fibre, following scouring Sheep farming in Tunisia occupies an important place in (washing) to remove vegetable and mineral contaminants the economic and social level, on the one hand, it can cover and wool grease. In the literature, several researches report 41% of the consumption of red meats [1] and secondly, it the effect of age, breed, sex… on fleece characteristics. contributes at 35-40% of agricultural GDP and 4 to 5% of In order to optimum use of Tunisian sheep wool, it is global GDP [2]. -
Genetic Variability Studies in Gossypium Barbadense L
Electronic Journal of Plant Breeding, 1(4): 961-965 (July 2010) Research Article Genetic variability studies in Gossypium barbadense L. genotypes for seed cotton yield and its yield components K. P. M. Dhamayanathi , S. Manickam and K. Rathinavel Abstract A study was carried out during kharif 2006-07 with twenty five Gossypium barbadense L genotypes to obtain information on genetic variability, heritability and genetic advance for seed cotton yield and its yield attributes. Significant differences were observed for characters among genotypes. High genetic differences were recorded for nodes/plant, sympodia, bolls as well as fruiting points per plant, seed cotton yield, lint index indicating ample scope for genetic improvement of these characters through selection. Results also revealed high heritability coupled with high genetic advance for yield and most of the yield components as well as fibre quality traits. Sympodia/plant, fruiting point /plant, number of nodes/plant, number of bolls per plant, and lint index were positively correlated with seed cotton yield per plant and appeared to be interrelated with each other. It is suggested that these characters could be considered as selection criteria in improving the seed cotton yield of G. barbadense , L genotypes. Key words : Gossypium barbadense , genetic variability, heritability, genetic advance, lint index, selection criteria Introduction Seed cotton yield is a complex trait governed by Cotton is the most widely used vegetable fibre and several yield contributing characters such as plant also the most important raw material for the textile height, number of monopodia, number of industry, grown in tropical and subtropical regions sympodia, number of bolls, number of fruiting in more than 80 countries all over the world. -
Long Staple Processing and Textile Testing
Volume 3, Issue 3, Fall 2003 Long Staple Processing and Textile Testing Dean R. Cobb Institute of Textile Technology ABSTRACT Several vendors in the long staple processing area and the textile testing unveiled some improvements to their existing offerings. The long staple improvements came in the form of better design, more productivity, more electronic controls, less maintenance requirements, versatility, and cross compatibility with automation of all types. Improvements from some testing vendors mainly concentrated on yielding more information from the same tests; like the sticky cotton measurement from Lintronics and Weavability from Uster. Keywords: Long staple processing, short staple textile testing, Introduction • Modular frame assemblies with no cross-rails. This ITMA 2003 review will • Statically and dynamically balanced concentrate on long staple cardroom cylinders, doffers, and top rollers for processes, textile testing equipment, and a more precise setting. miscellaneous section. As a general rule, • Quick release mechanisms for easier there were no “new” technologies exhibited maintenance. in most areas; however, there were design • Air control collars to reduce fly and trends in equipment and new players improve fiber yield. entering some technology fields. Machinery • Modular design of feedroller and taker- related trends included ease of maintenance, in arrangements allowing more use of servomotors, increased productivity, versatility. and improved quality. • Metal detection systems on board (some models). Long Staple Cardroom Processes • “Underspeed” sensors to prevent chokes at the taker-in. Tatham • All drives with toothed belts for positive transmissions to carding components. Tatham introduced the “Magnum” • Tatham introduced an auto doffing woolen cards, which are produced in 2.5, mechanism for tape condensers that has 3.0, and 4.0 meters in width. -
Recommendations for Producing Linen-Look Yarn on Conventional Equipment
TECHNICAL BULLETIN 6399 Weston Parkway, Cary, North Carolina, 27513 • Telephone (919) 678-2220 TRI 1010 RECOMMENDATIONS FOR PRODUCING LINEN-LOOK YARN ON CONVENTIONAL EQUIPMENT © 1992 Cotton Incorporated. All rights reserved; America’s Cotton Producers and Importers. TABLE OF CONTENTS Page CONCEPT 2 INTRODUCTION 2 FIBER ANALYSIS 3 LINEN-LOOK YARN--PREPARATORY PROCEDURE 3 SPINNING PROCEDURE 4 PROCESSING SEQUENCE AND EQUIPMENT SETTINGS 4 OPENING AND CLEANING 4 CARDING 4 DRAWING--FIRST PROCESS 4 DRAWING--SECOND PROCESS 5 ROVING 5 SPINNING 5 TEST RESULTS--18/1 Ne 6 CONCEPT To produce a 100% cotton novelty yarn with long linen-like slubs using standard mill machinery without special attachments. INTRODUCTION Cotton Incorporated developed a totally new novelty yarn with a linen look which can be produced on conventional mill machinery without special attachments. It is called "linen look" because it simulates long slubs common to linen yarn but is made using 100% cotton. The slubs are formed by using small amounts of comber noils (short fibers) in the final drawing operation. One of the main targets for this yarn is women's wear fabrics for blouses and skirts. In the current work, counts of 18/1 Ne were spun. The effective count range of this type yarn is projected to be from 8/1 Ne to 28/1 Ne. Example: Linen-Look vs. Regular Yarn (Ne 18/1 Ring TM 3.8) 2 FIBER ANALYSES 1. Characteristics of fiber used in this project Type - U.S. upland cotton Grade - SLM Length (inches) - 1.12 Mic - 3.8 - 4.6 Strength (grams/tex) - 24 and up 2. -
Notes from Judith Mackenzie's Class on Spinning Icelandic Fibers
Icelandic Sheep Breeders of North America Volume 5, Number 1 Winter 2001 Article #2 Editor, Kathy Hayes Notes from Judith Mackenzie’s Class on Spinning Icelandic Fibers Susan Mongold Weaving makes the lightest fabrics. Using a brush like a scrub brush on the woven fabric after it is woven (or knitted), will produce a long fur-type nap. The tog makes very attractive rug warp. Icelandic locks can actually be separated into up to 5 different lengths and diameters. Each layer gets progressively finer as the length gets shorter. The last or finest coat (thel) is like cashmere. The shortest undercoat, or bottom coat, the down, makes a perfect lace yarn. Lace is best made from a 2-ply yarn as the undulated surface of the 2-ply yarn helps to lock or hold the stich in place. A rounder, smoother 3-ply yarn has a smoother and more slippery surface and will not hold the pattern as well. In order to have the fibers slip easily in the spinning process, spin from the tip end of a lock, then ply from the butt end and knit from the tip end. This will give the easiest spinning experience as you are taking advantage of the lay of the scales on the wool fibers. The most important thing in a spinning fiber is the “hand.” hand is the soft silky feel of the fiber to your hand or how it feels when you handle it. It has little bearing on the fiber diameter. Even a very fine fiber can have a rough hand, while a coarse fiber can have a nice hand. -
The Textile Machinery Collection at the American Textile History Museum a Historic Mechanical Engineering Heritage Collection
THE TEXTILE MACHINERY COLLECTION AT THE AMERICAN TEXTILE HISTORY MUSEUM A HISTORIC MECHANICAL ENGINEERING HERITAGE COLLECTION Textiles are an important part of our everyday lives. They clothe and comfort us, protect our first-responders, Introduction filter the air in our automobiles, and form the core of the fuselage in our newest aircraft. We enjoy their bright colors, wrap up in their warmth, and seldom give a second thought to how they make bicycles stronger and lighter or how they might be used to repair our vital organs. As textiles have changed from the first simple twisted fibers to high-tech smart fabrics, the tools and machinery used to make them have evolved as well. Drop spindles and spinning wheels have given way to long lines of spinning frames. And looms now use puffs of air instead of the human hand to insert the weft thread in a growing length of fabric. During the eighteenth and nineteenth centuries, textile manufacture was the catalyst for the Industrial Revolution in America. It was the leading edge in the transformation from an agricultural to a manufacturing economy and started the move of significant numbers of people from rural areas to urban centers. With industrialization came a change in the way people worked. No longer controlled by natural rhythms, the workday demanded a life governed by the factory bell. On the consumer side, industrialization transformed textiles from one of a person’s most valuable possessions to a product widely available at incredibly low prices. For more than a century, textile mills in Great Britain and the United States dominated textile production and led the industrial revolution in both Europe and North America.