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URBN Global Apparel Testing/Labeling Manual
URBN INC. GLOBAL Fabric and Apparel Testing Manual Global URBN Fabric and Apparel Testing Manual 4.19.2019.docx IMPORTANT – PLEASE READ, PRINT AND SEND BACK A SIGNED COPY TO: MILLS – [email protected] VENDORS – [email protected] Or mail to: URBN |Building 543 | 5000 South Broad Street | Philadelphia | PA19112 | USA <ENTER> Supplier or /Mill Company Name <ENTER> Contact Person Name: I represent and agree that I read and fully understand the processes and regulations outlined in this document as required by URBN. On behalf of the <ENTER supplier or mill company name>, I agree that the Supplier/Mill will follow these processes and regulations, and that the Supplier/Mill will be responsible for any damages, including lost sales, related to the Supplier/Mill’s failure to comply with any of these requirements. Signed: Date: 2 Global URBN Fabric and Apparel Testing Manual 4.19.2019.docx Contents Section Subject Section 1 Care Symbols Section 2 Labelling Section 3 Fabric Manual and Testing Requirements Section 4 Garment Testing Requirements and Assessment Criteria Section 5 Regulatory Requirements Section 6 China Importing Requirements APPENDIX A CARE INSTRUCTIONS AND SYMBOLS APPENDIX B SGS GB APPROVED LABS 3 Global URBN Fabric and Apparel Testing Manual 4.19.2019.docx Section 1 Care Symbols 4 Global URBN Fabric and Apparel Testing Manual 4.19.2019.docx Care Symbols GB/T 8685 Standard All 5 symbols must display on the care label and in the below order. Please refer to the Appendix for a comprehensive list of all approved symbols. 5 Global URBN Fabric and Apparel Testing Manual 4.19.2019.docx Section 2 Labelling 6 Global URBN Fabric and Apparel Testing Manual 4.19.2019.docx Labelling Care Labels: • Care label wording and translations are available on the Vendor Website. -
Integration of Conductive Materials with Textile Structures, an Overview
sensors Review Integration of Conductive Materials with Textile Structures, an Overview Granch Berhe Tseghai 1,2,3,* , Benny Malengier 1 , Kinde Anlay Fante 2 , Abreha Bayrau Nigusse 1,3 and Lieva Van Langenhove 1 1 Department of Materials, Textiles and Chemical Engineering, Ghent University, 9000 Gent, Belgium; [email protected] (B.M.); [email protected] (A.B.N.); [email protected] (L.V.L.) 2 Jimma Institute of Technology, Jimma University, P.O. Box 378 Jimma, Ethiopia; [email protected] 3 Ethiopian Institute of Textile and Fashion Technology, Bahir Dar University, 6000 Bahir Dar, Ethiopia * Correspondence: [email protected]; Tel.: +32-465570635 Received: 5 November 2020; Accepted: 1 December 2020; Published: 3 December 2020 Abstract: In the last three decades, the development of new kinds of textiles, so-called smart and interactive textiles, has continued unabated. Smart textile materials and their applications are set to drastically boom as the demand for these textiles has been increasing by the emergence of new fibers, new fabrics, and innovative processing technologies. Moreover, people are eagerly demanding washable, flexible, lightweight, and robust e-textiles. These features depend on the properties of the starting material, the post-treatment, and the integration techniques. In this work, a comprehensive review has been conducted on the integration techniques of conductive materials in and onto a textile structure. The review showed that an e-textile can be developed by applying a conductive component on the surface of a textile substrate via plating, printing, coating, and other surface techniques, or by producing a textile substrate from metals and inherently conductive polymers via the creation of fibers and construction of yarns and fabrics with these. -
PRINTING CONDUCTIVE INK TRACKS on TEXTILE MATERIALS TAN SIUN CHENG a Project Report Submitted in Partial Fulfillment of the Requ
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by UTHM Institutional Repository i PRINTING CONDUCTIVE INK TRACKS ON TEXTILE MATERIALS TAN SIUN CHENG A project report submitted in partial fulfillment of the requirement for the award of the Degree of Master of Mechanical Engineering Faculty of Mechanical and Manufacturing Engineering Universiti Tun Hussein Onn Malaysia July 2015 v ABSTRACT Textile materials with integrated electrical features are capable of creating intelligent articles with wide range of applications such as sports, work wear, health care, safety and others. Traditionally the techniques used to create conductive textiles are conductive fibers, treated conductive fibers, conductive woven fabrics and conductive ink. The technologies to print conductive ink on textile materials are still under progress of development thus this study is to investigate the feasibility of printing conductive ink using manual, silk screen printing and on-shelf modified ink jet printer. In this study, the two points probe resistance test (IV Resistance Test) is employed to measure the resistance for all substrates. The surface finish and the thickness of the conductive inks track were measured using the optical microscope. The functionality of the electronics structure printed was tested by introducing strain via bending test to determine its performance in changing resistance when bent. It was found that the resistance obtained from manual method and single layer conductive ink track by silkscreen process were as expected. But this is a different case for the double layer conductive ink tracks by silkscreen where the resistance acquired shows a satisfactory result as expected. -
Fibers and Fabrics; TX335 .A1 U6 NO
KitlQRr Bureau of Standards Reference book' no' to ygjgtv |Oi Admin. Bldg. taken from the library, gmp STATES Ite.WMENT OF COMMERCE PUBLICATION A11ID3 Db3SbD All103063560 Blandford, Josephlne/FIbers and fabrics; TX335 .A1 U6 NO. 1, 1970 C.1 NBS-PUB-R 1 ^TES ‘‘•‘‘'/I'ti'i'.1'1' 1: BBB8 MB A Consumer’s Guide from the Mational Bureau of Standards NBS CIS 1 IIIIShSs Fibers and Fabrics by Josephine M. Blandford and Lois M. Gurel INFORMATION ABOUT NATURAL AND MAN-MADE FIBERS AND FABRICS TO MEET YOUR PARTICULAR NEEDS. NBS CONSUMER INFORMATION SERIES 1 Editor: James E. Payne Issued November 1970 U.S. DEPARTMENT OF COMMERCE Maurice H. Stans, Secretary Rocco C. Siciliano, Under Secretary Myron Tribus, Assistant Secretary for Science and Technology NATIONAL BUREAU OF STANDARDS A Consumer’s Lewis M. Branscomb, Director GUIDE FROM THE) NATIONAL BUREAU OF STANDARDS For sale by the Superintendent of Documents, U.S. Government Printing Office, U.S. DEPARTMENT Washington, D.C. 20402. OF COMMERCE Price 65 cents. NATIONAL BUREAU OF STANDARDS APR 1 0 1971 FOREWORD Technology is changing not only the products you buy, but the marketplace as well. Unfortunately, this is not an unmixed blessing. Products are constantly being improved, but designs are complicated, quality is vari¬ able, and good advice is hard to get. Modern stores and merchandising bring you a wide variety of products; but the large number of choices and the lack of dependable infor¬ mation often make shopping a confusing and frustrating experience. A generation ago the merchant was likely to be a friend of the family. -
Checklist for Textiles U.S.A
THE MUSEUM OF MODERN ART 11 WEST 53 STREET, NEW YORK 19, N. Y. TELEPHONE: CIRCLE 5-8900 No. &• TENTATIVE AND CONFIDENTIAL CHECKLIST FOR TEXTILES U.S.A. Home Furnishings Category Anderson Studio of Handweaving - East Gloucester, Massachusetts. Drapery material. Cotton, viscose and Jute. Designed by Beatrice Anderson, 1951*. Thelma Becherer - West Franklin, New Hampshire. Tapestry. Handwoven of green, yellow and clear "velon" plastic, with dried horsetails and cattails. Plain weave. 1956. Monica Bella Broner, Tapestry. "Fur Weave." Wool, cotton and fur strips, 195^• Bill Carter and Dodie Childs - Chicago, Illinois. Roll Shade, Handwoven matchstick bamboo across multicolored and textured cotton, wool and metallic yarn warp, 1955* Arundell Clarke Drapery fabric. "Strocm Draden". Handscreened white print on trans parent white silk. Designed by Pierre Kleykamp, 1955. Drapery fabric, "Primitive Forms." Handscreened black print on brown cotton. Designed by Baldwin-Machado, 1950, Drapery fabric. "10,000 B.C." Cotton jacquard, charcoal on white. Designed by Naomi Raymond, 1952. Cohn-Hall-Marx Co, (For Colvin, see Bertha Schaefer Callery - Page 3.) Upholstery fabric, Saran and metal, novelty weave. Brown, 1955. Fazakas Fabrics, Inc. Drapery fabric, "Hit & Miss," Black spray on white cotton batiste, Designed by DoneIda Fazakas, 1950, Qeraldine Punk - Lancaster, Pennsylvania, Window ahade, Handwoven red and rust cotton and rayon warp. Banana bark and coconut cord weft. 1950, Screen, Handwoven in Puerto Rico, White string warp,, white jnaguey and coconut sliver weft, 19^8, % Ginstrom - Cedar Falls, Iowa. Screen. "Scallops." Handwoven, handtied openwork; all linen panel. 1955. folding Decorative Fabrics. Drapery fabric. "Torero-Vermilion 33." Silk screened cotton sateen. Designed by Otto and Grete Wollner,1955» LiUy E. -
Intelligent-Textiles-And-Clothing.Pdf
240x159x24Pantone648C&722C 32mm WOODHEAD PUBLISHING IN TEXTILES WOODHEAD PUBLISHING IN TEXTILES WheOODHEAD use of intelligent textiles PUBLISHING in clothing is an exciting IN new field TEXTILES with wide-ranging Intelligenttextilesandclothing WOODHEAD PUBLISHING IN TEXTILES Tapplications. Intelligent textiles and clothing summarises some of main types of intelligenttextilesandtheiruses. Part I of the book reviews phase change materials (PCMs), their role in thermal regulationandwaystheycanbeintegratedintooutdoorandothertypesofclothing.The secondpartdiscussesshapememorymaterials(SMMs)andtheirapplicationsinmedical textiles, clothing and composite materials. Part III deals with chromic (colour change) andconductivematerialsandtheiruseassensorswithinclothing.Thefinalpartlooksat currentandpotentialapplications,includingworkwearandmedicalapplications. Withitsdistinguishededitorandinternationalteamofcontributors,Intelligenttextiles andclothingwillbeanessentialguidefortextilemanufacturersinsuchareasasspecialist clothing(forexampleprotective,sportsandoutdoorclothing)aswellasmedicaltextiles. DrHeikkiMattilaisProfessorofTextileandClothingTechnologyatTampereUniversity ofTechnology,Finland. Intelligenttextiles andclothing WoodheadPublishingLtd CRCPressLLC Mattila AbingtonHall 6000BrokenSoundParkway,NW Abington Suite300,BocaRaton CambridgeCB16AH FL33487 England USA www.woodheadpublishing.com CRCordernumberWP9099 EditedbyH.Mattila WoodheadPublishing CRCPress ii Related titles: Smart fibres, fabrics and clothing (ISBN-13: 978-1-85573-546-0; ISBN-10: 1-85573-546-6) This important book provides a guide to the fundamentals and latest developments in smart technology for textiles and clothing. -
Functional Styling - Exploring a Textile Design Space
Functional Styling - Exploring a textile design space Anna Persson and Linda Worbin1 The Swedish School of Textiles, University of Borås Department of Computer Science and Engineering, Chalmers University of Technology INTRODUCTION As interactive materials enter the world of textile design, a new area is defined. From an interaction design perspective, interactive (or smart) textiles obviously differ from, for example, a computer game or a word processing program in various ways. One difference is that interactive textiles are experienced as physical materials and are not pixels changing colour on a computer display. But the main difference lies in the diverse aesthetical values; computer software and hardware are related to advanced technology, hard material and functionality whereas textiles are familiar, tactile, flexible and touchable. Still, textiles can build on of advanced technology. Functional aspects of interactive textiles have been thoroughly explored through for example health-monitoring devices (cf. for example [Lymberis and De Rossi, 2004]) and wearable electronics (cf. for example [Tao, 2005]). Other research includes interactive textile interfaces such as Super Celia Skin [Raffle, et al., 2004] and Sprout I/0. [Coelho and Maes, 2008]. The Smart Carpet is a large-area sensor network integrated into a carpet able to, for example, detect if someone has fallen on the floor [Glaser, et al., 2005]. Similar carpets, capable of detecting footsteps and the presence of a person, are available on the market [Future Shape, 2010]. To be able to understand the full potential of interactive textiles, we need to consider them as something new, designed in the intersection between textile design and interaction design. -
Polypyrrole Coated Nylon Lycra Fabric As Stretchable Electrode for Supercapacitor Applications Binbin Yue University of Wollongong
University of Wollongong Research Online Australian Institute for Innovative Materials - Papers Australian Institute for Innovative Materials 2012 Polypyrrole coated nylon lycra fabric as stretchable electrode for supercapacitor applications Binbin Yue University of Wollongong Caiyun Wang University of Wollongong, [email protected] Xin Ding Donghua University, China Gordon G. Wallace University of Wollongong, [email protected] Publication Details Yue, B, Wang, C, Ding, X & Wallace, GG (2012), Polypyrrole coated nylon lycra fabric as stretchable electrode for supercapacitor applications, Electrochimica Acta, 68, pp. 18-24. Research Online is the open access institutional repository for the University of Wollongong. For further information contact the UOW Library: [email protected] Polypyrrole coated nylon lycra fabric as stretchable electrode for supercapacitor applications Abstract Wearable electronics offer the combined advantages of both electronics and fabrics. Being an indispensable part of these electronics, lightweight, stretchable and wearable power sources are strongly demanded. Here we describe a daily-used nylon lycra fabric coated with polypyrrole as electrode for stretchable supercapacitors. Polypyrrole was synthesized on the fabric via a simple chemical polymerization process with ammonium persulfate (APS) as an oxidant and naphthalene-2,6-disulfonic acid disodium salt (Na2NDS) as a dopant. This material was characterized with FESEM, FTIR, tensile stress, and studied as a supercapacitor electrode in 1.0 M NaCl. This -
Fabric Dictionary
FABRIC DICTIONARY A Absorbency- The ability of a fabric to take in moisture. Acetate- A manufactured fiber formed by compound of cellulose, refined from cotton linters and/or wood pulp, and acedic acid that has been extruded through a spinneret and then hardened. Acrylic- A manufactured fiber, its major properties include a soft, wool-like hand, machine washable and dryable and excellent color retention. Alpaca- A natural hair fiber obtained from the Alpaca sheep, a domesticated member of the llama family. Angora- The hair of the Angora goat. Also known as Angora mohair. Angora may also apply to the fur of the Angora rabbit. Antique Satin-A reversible satin-weave fabric with satin floats on the technical face and surface slubs on the technical back created by using slub-filling yarns. It is usually used with the technical back as the right side for drapery fabrics and often made of a blend of fibers. Argyle- A pattern designed with different color diamond shapes knit into a fabric. B Bamboo Fabric- Bamboo fabric is a natural textile made from the pulp of the bamboo grass. Bamboo fabric has been growing in popularity because it has many unique properties and is more sustainable than most textile fibers. Bamboo fabric is light and strong, has excellent wicking properties, and is to some extent antibacterial. Barkcloth- A textured woven, usually printed cotton fabric that was popular in the 30s-40s and 50s as an interiors fabric. The prints were often large vines, leaves and florals. Basket Weave- A distinctive technique of weaving that creates a fabric resembling basket work with interwoven fibers. -
The Application Wearable Thermal Textile Technology in Thermal-Protection Applications
Latest Trends in Textile and L UPINE PUBLISHERS Fashion Designing Open Access DOI: 10.32474/LTTFD.2018.01.000106 ISSN: 2637-4595 Research Article The Application Wearable Thermal Textile Technology in Thermal-Protection Applications Yang Chenxiao and Li Li* The Hong Kong Polytechnic University, Hong Kong Received: January 03, 2018; Published: January 20, 2018 *Corresponding author: Li Li, The Hong Kong Polytechnic University, The institute of Textiles and Clothing, Hong Kong Abstract The needs for better thermal protection exist in various fields of our life, like the better thermal treatment, outside chill sports field and developed.freezing working This article condition reviews etc. However,the relevant the wearable traditional thermal passive textile thermal technology insulated by clothing utilizing is theinsufficient, latest conductive too blocky textile and heavymaterials to constrain in three the movement of wearers and uncomforted to wear. Thus, an innovative light, flexible and active wearable thermal protection needs to be developing levels: the fiber level, the yarn level and the fabric level, to provide more possibilities for new products development in various fields,Keywords: which Wearable will facilitate technology; the transfer Thermal from protection; research achievement Conductive textile;into mass Silver-coated production yarn to realize its commercial benefits. Introduction With the capability of the human to survive in various extreme structure constrains the free movement of human beings, especially environments is growing stronger and stronger, the desire to act protection is insufficient. Further, this bulky and massive multilayer when human doing exercises and conducting works in chill winter and move freely in chill condition is growing as well. -
Supporting Information for Adv
Copyright WILEY-VCH Verlag GmbH & Co. KGaA, 69469 Weinheim, Germany, 2020. Supporting Information for Adv. Mater. Technol., DOI: 10.1002/admt.202000383 Smart Thermally Actuating Textiles Vanessa Sanchez, Christopher J. Payne, Daniel J. Preston, Jonathan T. Alvarez, James C. Weaver, Asli T. Atalay, Mustafa Boyvat, Daniel M. Vogt, Robert J. Wood, George M. Whitesides, and Conor J. Walsh* Copyright WILEY-VCH Verlag GmbH & Co. KGaA, 69469 Weinheim, Germany, 2018. Supporting Information Smart Thermally Actuating Textiles Vanessa Sanchez†, Christopher J. Payne†, Daniel J. Preston, Jonathan T. Alvarez, James C. Weaver, Asli T. Atalay, Mustafa Boyvat, Daniel M. Vogt, Robert J. Wood, George M. Whitesides, and Conor J. Walsh* †Indicates equal contribution. *to whom correspondence should be addressed: [email protected] 1. Detailed Materials and Fabrication of STATs 1.1 Laser Fabrication Methods Material patterning for smart thermally actuating textiles (STATs) was done using vector cutting on a laser cutter. All laser cutting was performed using a 60-Watt CO2 laser (VLS 6.60, Universal Laser Systems) with the 2.0 lens. According to the manufacturer, this lens has a focal length of 50.8 mm, a focal spot size of approximately 0.13 mm, and a 2.54-mm depth of focus which define the width, w, of the zone of ablation. The width was measured to be approximately 200 µm with the system configuration in this work (Figure S1). Figure S1. (A) Schematic and (B) SEM image indicating zone of ablation and width. 1 1.2 Textile Heater Fabrication Joule heaters were incorporated on the interior of STATs. For the active heating material, woven silver-plated nylon (Shieldex Bremen Ripstop, V Technical Textiles Inc.) was adhered to a 5 μm double-sided adhesive (3M #82600 5 μm electronic double-sided tape, Bristol Tape Corporation). -
Towels and Bathrobes
Tauchen Sie ein in die grenzenlose Welt hochwertigster Frotteeprodukte von Abyss & Habidecor. Gerne stehen wir Ihnen für eine persönliche Beratung zur Verfügung und unterbreiten eine Offerte für Ihr Wunschprodukt. 2018 2020 Certified Extra Long Staple Giza Cotton is recognized as the Finest Cotton in the World and is used for Abyss & Habidecor towels and bathrobes. Cultivated on the banks of the Nile, the cotton The Oeko-Tex label obtained by the company is the fruit of is picked by hand. The fiber is treated to create yarn a demonstrated commitment to invest in biological water of exceptional quality resulting in superior softness, treatment and the use of biodegradable products. absorbency, durability and elegance. ON OTT EXT C RA N L A O I N T P G Y S G T E A A P L Z I E G Certified Made in . Made by . Made of Portugal RUGS Founded over 30 years ago, Abyss & Habidecor are the realized dreams woven by our founder, Celso de Lemos: creating the best towels and rugs in the world, made in Portugal, his homeland. In a location up high, between beaches and vineyards, the city of Viseu, in the center of Portugal, is home to the Abyss & Habidecor production units. Only using the most exquisite linen, Egyptian cotton, modal and silk to compose the pile of our excellent rugs and towels. The whole Abyss & Habidecor team has devoted its expertise to bath linens with a craft steeped in tradition. The craftwork to which the Abyss & Habidecor workers dedicate themselves day after day is guided by a commitment to excellence.