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Smart Textiles and Their Applications outlines the fundamental principles of applied smart textiles, also reporting on recent trends and research developments. Scientific issues and proposed solutions are presented in a rigorous and constructive way that fully presents the various results, prototypes, and case-studies obtained from academic and industrial laboratories worldwide. After an introduction to smart textiles and their applications from the editor, Part One reviews smart textiles for medical purposes, including their use in health monitoring, treatment delivery, and assistive technologies. Part Two covers smart textiles for transportation and energy, with chapters covering smart textiles for the monitoring of structures and processes, as well as smart textiles for energy generation. The final section considers smart textiles for protection, security, and communication, and includes chapters covering electrochromic textile displays, textile antennas, and smart materials for personal protective equipment.
Smart materials. --- Textile fabrics --- Electronic textiles. --- Technological innovations. --- E-textiles --- Smart textiles --- Smart materials --- Cloth --- Fabrics --- Textile industry and fabrics --- Textiles --- Decorative arts --- Dry-goods --- Weaving --- Textile fibers --- Adaptive materials --- Intelligent materials --- Sense-able materials --- Materials --- Textiles. --- Textile industry. --- Industry, Textile --- Industries, Textile --- Textile Industries --- Textile --- Silk
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From a holistic perspective, this handbook explores the design, development and production of smart textiles and textile electronics, breaking with the traditional silo-structure of smart textile research and development. Leading experts from different domains including textile production, electrical engineering, interaction design and human-computer interaction (HCI) address production processes in their entirety by exploring important concepts and topics like textile manufacturing, sensor and actuator development for textiles, the integration of electronics into textiles and the interaction with textiles. In addition, different application scenarios, where smart textiles play a key role, are presented too. Smart Textiles would be an ideal resource for researchers, designers and academics who are interested in understanding the overall process in creating viable smart textiles.
Computer science. --- Health informatics. --- User interfaces (Computer systems). --- Pattern recognition. --- Optical materials. --- Electronic materials. --- Computer Science. --- User Interfaces and Human Computer Interaction. --- Optical and Electronic Materials. --- Pattern Recognition. --- Health Informatics. --- Smart structures. --- Adaptive structures --- Intelligent structures --- Electronic materials --- Optics --- Materials --- Design perception --- Pattern recognition --- Form perception --- Perception --- Figure-ground perception --- Interfaces, User (Computer systems) --- Human-machine systems --- Human-computer interaction --- Clinical informatics --- Health informatics --- Medical information science --- Information science --- Medicine --- Informatics --- Science --- Data processing --- Structural control (Engineering) --- Optical pattern recognition. --- Medical records --- Data processing. --- EHR systems --- EHR technology --- EHRs (Electronic health records) --- Electronic health records --- Electronic medical records --- EMR systems --- EMRs (Electronic medical records) --- Information storage and retrieval systems --- Optical data processing --- Pattern perception --- Perceptrons --- Visual discrimination --- Medical care --- Electronic textiles. --- Electronic textiles --- Textile fabrics --- Smart structures
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The book presents the latest developments in narrow fabrics and smart materials from research institutions, machinery building companies and producers of such products, presented during the International Week of Narrow and Smart Textiles in Spring 2018 in Mönchengladbach, Germany. It also demonstrates different applications of braided and woven fabrics. Braided and woven narrow products are produced using completely different techniques, but have a lot of similarities in their applications – they are used as belts, ropes and tubes in areas ranging from medical textiles, cables, technical and home applications to large-scale transport belts and long tubes for transporting oil from the bottom of the ocean.
Chemistry. --- Textile industry. --- Industrial engineering. --- Production engineering. --- Materials science. --- Textile Engineering. --- Characterization and Evaluation of Materials. --- Industrial and Production Engineering. --- Electronic textiles. --- Textile industry and fabrics --- Textiles industry --- Manufacturing industries --- E-textiles --- Smart textiles --- Smart materials --- Textile fabrics --- Surfaces (Physics). --- Management engineering --- Simplification in industry --- Engineering --- Value analysis (Cost control) --- Physics --- Surface chemistry --- Surfaces (Technology) --- Manufacturing engineering --- Process engineering --- Industrial engineering --- Mechanical engineering --- Material science --- Physical sciences
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Wearables, Smart Textiles & Smart Apparel, the first book of its kind on the topic, is divided into two major themes, wearables that are part of the large textile family and those that are not. It provides a broad overview of topics, markets, applications, benefits, fears and technologies, also emphasizing the industrial economics and costs, etc. As the wearables market continues to grow, making inroads in classic clothing, luxury, medical and professional use, and in protection and accessories like sports bracelets, watches, glasses, fashion or sports shoes, etc., this book helps users understand the technology and its future in industry.
Wearable technology. --- Electronic textiles. --- E-textiles --- Smart textiles --- Smart materials --- Textile fabrics --- Wearable devices --- Wearable electronics --- Wearable tech --- Wearables (Wearable technology) --- Miniature electronic equipment --- Flexible electronics --- Textiles. --- Textile industry. --- Wearable Electronic Devices. --- Electronic Skin --- Wearable Devices --- Wearable Technology --- Device, Wearable --- Device, Wearable Electronic --- Devices, Wearable --- Devices, Wearable Electronic --- Electronic Device, Wearable --- Electronic Devices, Wearable --- Skin, Electronic --- Technologies, Wearable --- Technology, Wearable --- Wearable Device --- Wearable Electronic Device --- Wearable Technologies --- Industry, Textile --- Industries, Textile --- Textile Industries --- Textile --- Silk --- Motion Capture
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Biomedical materials. --- Textile fabrics. --- Nanostructured materials. --- Smart materials. --- Clothing trade --- Textile fabrics --- Textile fibers --- Wearable computers --- Technological innovations. --- Industrial applications. --- Mobile computing --- Portable computers --- Wearable technology --- Fibers --- Cloth --- Fabrics --- Textile industry and fabrics --- Textiles --- Decorative arts --- Dry-goods --- Weaving --- Apparel industry --- Clothiers --- Clothing industry --- Fashion industry --- Garment industry --- Rag trade --- Textile industry --- Tailors --- Adaptive materials --- Intelligent materials --- Sense-able materials --- Materials --- Nanomaterials --- Nanometer materials --- Nanophase materials --- Nanostructure controlled materials --- Nanostructure materials --- Ultra-fine microstructure materials --- Microstructure --- Nanotechnology --- Biocompatible materials --- Biomaterials --- Medical materials --- Medicine --- Biomedical engineering --- Biocompatibility --- Prosthesis --- Bioartificial materials --- Hemocompatible materials --- Biomaterials (Biomedical materials) --- Electronic textiles.
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High-performance or hi-tech textiles represent the keystone of the present and the future for all industrial sectors, which require lightening, flexibility, and the high mechanical resistance as well as thermal stability of the materials. As described within this Special Issue, the applications of these advanced systems are innovative and also highly technological: from water-repellent to stain-resistant fabrics, from being flame-resistant to antibacterial/antifouling, from being insulating to conductive, and from environmental protection systems to smart textiles. High-performance textiles also meet all of the actual requirements of sustainability and environmental protection of modern industry.
Technology: general issues --- History of engineering & technology --- Materials science --- 3-D honeycomb woven fabric --- CB/CIP --- mechanical property --- EM wave-absorbing property --- soybean oil --- glycerol --- nonthermal plasma --- para-aramid textiles --- cationic dye --- selenium nanoparticles --- polypropylene --- coloration --- antibacterial --- conductivity --- UV protection --- metamaterials --- high-performance textiles --- wearable antenna --- textile antennas --- polymer --- cotton/lycra composites --- silica nanoparticles --- antibacterial activity --- self-cleaning --- aramid fibers --- surface modification --- adhesion --- interphase --- interfacial shear strength --- flexography --- e-textiles --- wearables --- printed-electronics --- textiles --- electronic textiles --- Ag/TiO2 --- nanocomposite --- photocatalysis --- viscose fibers --- leather --- sonochemical --- toxicity --- footwear --- multifunctional finishing --- wool fabrics --- UV-blocking properties --- antimicrobial activity --- para-aramid --- ambient air --- acrylic acid --- acrylated epoxidized soybean oil --- metasurface --- high performance textiles
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High-performance or hi-tech textiles represent the keystone of the present and the future for all industrial sectors, which require lightening, flexibility, and the high mechanical resistance as well as thermal stability of the materials. As described within this Special Issue, the applications of these advanced systems are innovative and also highly technological: from water-repellent to stain-resistant fabrics, from being flame-resistant to antibacterial/antifouling, from being insulating to conductive, and from environmental protection systems to smart textiles. High-performance textiles also meet all of the actual requirements of sustainability and environmental protection of modern industry.
3-D honeycomb woven fabric --- CB/CIP --- mechanical property --- EM wave-absorbing property --- soybean oil --- glycerol --- nonthermal plasma --- para-aramid textiles --- cationic dye --- selenium nanoparticles --- polypropylene --- coloration --- antibacterial --- conductivity --- UV protection --- metamaterials --- high-performance textiles --- wearable antenna --- textile antennas --- polymer --- cotton/lycra composites --- silica nanoparticles --- antibacterial activity --- self-cleaning --- aramid fibers --- surface modification --- adhesion --- interphase --- interfacial shear strength --- flexography --- e-textiles --- wearables --- printed-electronics --- textiles --- electronic textiles --- Ag/TiO2 --- nanocomposite --- photocatalysis --- viscose fibers --- leather --- sonochemical --- toxicity --- footwear --- multifunctional finishing --- wool fabrics --- UV-blocking properties --- antimicrobial activity --- para-aramid --- ambient air --- acrylic acid --- acrylated epoxidized soybean oil --- metasurface --- high performance textiles
Choose an application
High-performance or hi-tech textiles represent the keystone of the present and the future for all industrial sectors, which require lightening, flexibility, and the high mechanical resistance as well as thermal stability of the materials. As described within this Special Issue, the applications of these advanced systems are innovative and also highly technological: from water-repellent to stain-resistant fabrics, from being flame-resistant to antibacterial/antifouling, from being insulating to conductive, and from environmental protection systems to smart textiles. High-performance textiles also meet all of the actual requirements of sustainability and environmental protection of modern industry.
Technology: general issues --- History of engineering & technology --- Materials science --- 3-D honeycomb woven fabric --- CB/CIP --- mechanical property --- EM wave-absorbing property --- soybean oil --- glycerol --- nonthermal plasma --- para-aramid textiles --- cationic dye --- selenium nanoparticles --- polypropylene --- coloration --- antibacterial --- conductivity --- UV protection --- metamaterials --- high-performance textiles --- wearable antenna --- textile antennas --- polymer --- cotton/lycra composites --- silica nanoparticles --- antibacterial activity --- self-cleaning --- aramid fibers --- surface modification --- adhesion --- interphase --- interfacial shear strength --- flexography --- e-textiles --- wearables --- printed-electronics --- textiles --- electronic textiles --- Ag/TiO2 --- nanocomposite --- photocatalysis --- viscose fibers --- leather --- sonochemical --- toxicity --- footwear --- multifunctional finishing --- wool fabrics --- UV-blocking properties --- antimicrobial activity --- para-aramid --- ambient air --- acrylic acid --- acrylated epoxidized soybean oil --- metasurface --- high performance textiles --- 3-D honeycomb woven fabric --- CB/CIP --- mechanical property --- EM wave-absorbing property --- soybean oil --- glycerol --- nonthermal plasma --- para-aramid textiles --- cationic dye --- selenium nanoparticles --- polypropylene --- coloration --- antibacterial --- conductivity --- UV protection --- metamaterials --- high-performance textiles --- wearable antenna --- textile antennas --- polymer --- cotton/lycra composites --- silica nanoparticles --- antibacterial activity --- self-cleaning --- aramid fibers --- surface modification --- adhesion --- interphase --- interfacial shear strength --- flexography --- e-textiles --- wearables --- printed-electronics --- textiles --- electronic textiles --- Ag/TiO2 --- nanocomposite --- photocatalysis --- viscose fibers --- leather --- sonochemical --- toxicity --- footwear --- multifunctional finishing --- wool fabrics --- UV-blocking properties --- antimicrobial activity --- para-aramid --- ambient air --- acrylic acid --- acrylated epoxidized soybean oil --- metasurface --- high performance textiles
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Developments in the science and technology of textiles are not only limited to apparel and fashion. Certainly, there are research efforts aimed at improving the construction and processing of textiles for clothing—such as studies on cleaner production to reduce environmental impact, increasing the utilization of fibers and process chemicals from renewable resources, and on the recycling of materials from post-consumer waste apparel back into the manufacturing of new clothing articles. In addition, technological concepts developed for the creation of clothing over the centuries are now being investigated for use in a diverse array of fields—such as in the manufacture of engineering composites, personal protective equipment, and medicine. Further, developments in other fields—such as electronics, nanotechnology, and information and communication technologies—are being investigated for their incorporation into apparel and clothing to create “smart textiles”. The aim of this Special Issue is to put together a collection of scientific reports on such efforts to highlight the range of scientific and technological issues that are being targeted and the ingenuity of the methodologies employed to find answers. It is hoped that readers of this issue will come away with an appreciation of the research being conducted in this area, and perhaps gain inspiration for their own scientific endeavors.
History of engineering & technology --- Polyimide fiber --- thermal stability --- swelling agent --- dyeability --- carbon textile reinforced mortar --- uniaxial tensile tests --- debonding failure --- steel fibers --- prestress --- multi-cracking pattern --- polyacrylonitrile --- polyaniline --- conductive fibers --- flax fiber-reinforced composite --- strain rate effect --- Johnson–Cook model --- lattice structure --- failure mechanism --- textiles --- composite preforming --- mechanical properties --- shear behavior --- surface analysis --- picture frame test --- kinematic draping simulation --- textile --- PET --- biomaterials --- iPS-cells --- cardiomyocytes --- maturation --- gene expression --- electronic textiles --- AMOLED --- OTFTs --- OLEDs --- textile displays --- organic thin film --- graft polymerization --- surface modification --- hydrogels --- gamma irradiation --- silver nanoparticles --- antibacterial activity --- temperature sensor --- conductivity --- coatings --- deposition --- thermocouple --- material characterization --- smart clothing --- temperature sensing --- wearable technology --- nanomaterials --- environmental impacts --- toxicity --- health and safety --- conductive fibres --- cellulose fibres --- pressure sensor --- smart textiles --- viscose fibres --- carbon black --- biocementation --- MICP --- jute fibres --- unconfined compressive strength --- urea hydrolysis --- sustainable geotechnics --- self-healing --- n/a --- Johnson-Cook model
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Developments in the science and technology of textiles are not only limited to apparel and fashion. Certainly, there are research efforts aimed at improving the construction and processing of textiles for clothing—such as studies on cleaner production to reduce environmental impact, increasing the utilization of fibers and process chemicals from renewable resources, and on the recycling of materials from post-consumer waste apparel back into the manufacturing of new clothing articles. In addition, technological concepts developed for the creation of clothing over the centuries are now being investigated for use in a diverse array of fields—such as in the manufacture of engineering composites, personal protective equipment, and medicine. Further, developments in other fields—such as electronics, nanotechnology, and information and communication technologies—are being investigated for their incorporation into apparel and clothing to create “smart textiles”. The aim of this Special Issue is to put together a collection of scientific reports on such efforts to highlight the range of scientific and technological issues that are being targeted and the ingenuity of the methodologies employed to find answers. It is hoped that readers of this issue will come away with an appreciation of the research being conducted in this area, and perhaps gain inspiration for their own scientific endeavors.
Polyimide fiber --- thermal stability --- swelling agent --- dyeability --- carbon textile reinforced mortar --- uniaxial tensile tests --- debonding failure --- steel fibers --- prestress --- multi-cracking pattern --- polyacrylonitrile --- polyaniline --- conductive fibers --- flax fiber-reinforced composite --- strain rate effect --- Johnson–Cook model --- lattice structure --- failure mechanism --- textiles --- composite preforming --- mechanical properties --- shear behavior --- surface analysis --- picture frame test --- kinematic draping simulation --- textile --- PET --- biomaterials --- iPS-cells --- cardiomyocytes --- maturation --- gene expression --- electronic textiles --- AMOLED --- OTFTs --- OLEDs --- textile displays --- organic thin film --- graft polymerization --- surface modification --- hydrogels --- gamma irradiation --- silver nanoparticles --- antibacterial activity --- temperature sensor --- conductivity --- coatings --- deposition --- thermocouple --- material characterization --- smart clothing --- temperature sensing --- wearable technology --- nanomaterials --- environmental impacts --- toxicity --- health and safety --- conductive fibres --- cellulose fibres --- pressure sensor --- smart textiles --- viscose fibres --- carbon black --- biocementation --- MICP --- jute fibres --- unconfined compressive strength --- urea hydrolysis --- sustainable geotechnics --- self-healing --- n/a --- Johnson-Cook model