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市場調査レポート

産業用コーティング繊維:コーティング技術および専門メーカ3社のプロファイル

Coated Industrial Textiles: Coating Technologies and Profiles of Three Specialist Producers

発行 Textiles Intelligence
出版日 2009年10月 商品コード 102435
ページ情報 英文 24 Pages
価格
US$ 520 換算 ¥ 41,844 (税抜) PDF by E-mail (Single User License)
US$ 1,560 換算 ¥ 125,533 (税抜) PDF by E-mail (Site License)
US$ 3,120 換算 ¥ 251,066 (税抜) PDF by E-mail (Corporate License)


原文目次

Abstract

Coated fabrics are employed in a wide variety of applications, ranging from protective clothing to architectural materials. Established technologies involve the application of elastomers and silicones, polyurethane (PU), and polytetrafluoroethylene (PTFE) to textiles using processes such as direct coating, transfer coating, online coating, extrusion coating and calendering. However, recent advances have included plasma coating, nanocoating and inkjet deposition, with the aim of improving functionality, reducing costs and improving the level of environmental friendliness of manufacturing operations.

Plasma coating was originally developed for use in military clothing, in order to protect the wearer from chemical agents. Today it is used mainly for liquid repellency in applications such as performance footwear. However, recent research has gone into finding ways of using the technique to reduce the amount of functional additive required for the production of nonwovens for the hygiene industry.

Nanocoating involves the application of nano-sized particles on to a substrate in order to provide specific specialist performance properties. Coatings which incorporate nanotechnology are usually used for medical applications, mainly those involving antiviral and biocidal requirements. Inkjet deposition involves the application of chemical coatings to a substrate using the same technology which is used for digital inkjet printing. Although the use of this technique in technical textiles is still in its infancy, its benefits are deemed to be substantial, especially by the participants of Digitex - an R&D project involving TenCate and 15 other companies which has been partly funded by the EU.

Specific developments in coated fabrics include: textiles with dirt repellency and self-cleaning attributes; textiles which change colour in response to changes of temperature or when they come into contact with acid; shear thickening fluid which stiffens to provide body armour; rubber-like fabrics which are impermeable to toxic chemicals; stain resistant fabrics; and waterproof fabrics.

Table of Contents

  • SUMMARY
  • INTRODUCTION
  • DEVELOPMENT OF TEXTILE COATING TECHNOLOGY
  • KEY INDUSTRIAL TEXTILE COATINGS
    • Silicones
    • Polyurethane
    • Polytetrafluoroethylene (PTFE)
  • INDUSTRIAL TEXTILE COATING PROCESSES
    • Direct coating
    • Transfer coating
    • Online coating
    • Extrusion coating
    • Calendering
  • KEY EMERGING AREAS OF TECHNOLOGICAL DEVELOPMENT IN TEXTILE COATING
    • Plasma coating
    • Liquid repellency
    • Reduction in additives
    • Nanocoating
    • Antiviral and biocidal fabrics
    • Inkjet deposition
  • RECENT DEVELOPMENTS IN INDUSTRIAL TEXTILE COATINGS
    • Barrier
    • ContiMetalflex
    • InMat aqueous elastomeric nanocomposite coatings
    • Ion-mask
    • ITS fibresmart
    • Mincor TX TT
    • Nano-X
    • NanoSphere
    • Shear thickening fluid (STF) -“liquid body armour”
    • Titanium dioxide (TiO2)
  • PROFILE OF CONTITECH ELASTOMER COATINGS
    • Manufacturing plants
    • Products and markets
    • Printing blankets
    • Concertina wall material
    • Collapsible tanks
    • Diaphragm materials
  • PROFILE OF GAMMA HOLDING
    • Production
    • Products and markets
  • PROFILE OF SIOEN INDUSTRIES
    • Company structure
    • Products and markets
    • Manufacturing facilities
    • Innovation
  • CONCLUSION
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