Textle Outlook-3.pdf - Technopak

Textle Outlook-3.pdf - Technopak Textle Outlook-3.pdf - Technopak

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t e c h n o p a k<br />

Company Name CONFIDENTIAL<br />

1


textile & apparel<br />

a quarterly report by technopak OCTOBER’ 08 / VOLUME 2<br />

future<br />

textile & apparel<br />

technology<br />

trends


Contents<br />

1. Wearable Technology: Getting Technology at Arm’s Length 02<br />

2. Economic Sustainability: Textiles Get Responsible 06<br />

3. Comfort & Ease: Garments Become an Extension of Human Comfort 08<br />

4. Functional Fabrics: Making Textiles Work for You 10<br />

5. Conclusion 12<br />

6. Glossary 13<br />

textile & apparel<br />

©<strong>Technopak</strong> Advisors Pvt. Ltd.<br />

Textile & Apparel <strong>Outlook</strong> is an effort by the <strong>Technopak</strong> fashion practice to explore<br />

the dynamic changes occurring in the global textle and Apparel industry.<br />

We at <strong>Technopak</strong> understand the need for continuous and intensive assessment<br />

of India’s textile & apparel industry. With this report we have attempted to provide<br />

insight into the trends and the opportunities that are available for businesses<br />

operating in this domain.


01<br />

Fabricating the Future of Textiles<br />

Textile and apparel is one of the oldest industries in the world and has come a long way since the days when manufacturing<br />

used to primarily occurred in consumption centers of US, Europe and Japan. Trade eventually shifted to newly industrialize<br />

Asian countries with low labor cost and abundant raw material. The next important stage emerged when quota restrictions were<br />

removed on 01 Januaray 2005 changing sourcing patterns as well as buyer-supplier relationships.<br />

Global textile and apparel trade stood at US$ 550 Billion in 2007 and is expected to grow to US$ 805 Billion by 2015 as per<br />

<strong>Technopak</strong> estimates. Apparel is expected to grow at a faster pace than textiles.<br />

Table 1 Textile and Apparel World Trade<br />

2015 300 505<br />

2010 260 390 US$ 650 Billion<br />

2007 225 325 US$ 550 Billion<br />

0 150<br />

300 450 600 750<br />

Trade in US$ (Billion)<br />

The changes expected in the next 6-8 years will be far more than those witnessed in the last 2 decades. These are consolidation,<br />

collaboration and relocation, redefining of traditional roles, emergence of large conglomerates, shifting of consumption patterns<br />

to countries like China & India, new technologies emerging to enhance the usage and advantages of apparel/textile etc. As the<br />

market matures, retailers are now looking to add value to their apparel/textile offer to consumers to suit their needs and act as an<br />

extension of their lives.<br />

The above changes in trade and consumer requirements have meant that textile technology, once considered a handicraft, has<br />

become a highly sophisticated and scientific activity. The field uses all areas of engineering arena such as mechanical, electrical,<br />

computer, chemical, instrumentation and structural engineering. This report puts together some of the recent technological trends<br />

and developments being witnessed by the global textile and apparel industry. The trends are woven around 4 themes namely:<br />

1. Wearable Textiles: Textiles that are able to sense stimuli from the environment, to react and adapt to them by integration of<br />

functionalities embedded in the textile structure.<br />

2. Environment Sustainability: Textiles and apparel which do not take away from the physical environment in their entire<br />

value chain.<br />

3. Technologies to add Comfort and Ease: Textiles that enhance usage by added properties.<br />

4. Functional Fabrics: Textiles that enhance the performance objectives.<br />

US$ 805 Billion<br />

Apparel<br />

This report is by no means but only an indicator of global trends. It is a compilation of technological breakthroughs from around<br />

the world in the textile sector. We hope it will inspire executives, technologists, researchers, entrepreneurs in India to make best<br />

use of this knowledge.<br />

Examples have been used where ever possible to showcase what is happening globally in these technologies. Additionally, the<br />

innovations and the advancements discussed may be at a different stage of their life cycle than as mentioned in this report.<br />

Textile


1.Wearable Technology:<br />

Getting Technology at Arm’s Length<br />

With the advancement of technology, the interaction of human individuals with electronic devices demands specific user skills,<br />

more so with improved user interfaces. In this context the concept of electronic textiles promises enhanced user-friendliness, user<br />

empowerment, and more efficient services support. Wearable electronics respond to the individual in an invisible way. It serves<br />

the individual’s needs, and thus making day to day activities more comfortable.<br />

It’s a field – variously known as Smart Textiles, Smart fabrics, Smart Clothing, Wearable Electronic, Interactive Wear, Electronic<br />

Textiles, Textile Electronic, Intelligent Textiles - that is realized as a result of the convergence of microelectronics with textiles<br />

surrounding us in our daily life - be it clothing, home textiles or technical textiles. This process requires the development of<br />

enabling key technologies. Various technology demonstrators are proposed which consistently aim for improving the interaction<br />

between human individual and information technology.<br />

1.1<br />

Roles of Interactive Wear<br />

Basically, five functions can exist in an intelligent textile,<br />

namely: sensors, data processing, actuators, storage and<br />

communication. They all have a clear role; although not all<br />

smart textiles will contain all functions. The functions may be<br />

quite apparent, or may be intrinsic.<br />

The extent of intelligence with the above functions can be<br />

divided in four subgroups:<br />

• Passive smart textiles can only sense the environment, they<br />

are sensors;<br />

• Active smart textiles can sense the stimuli from the<br />

environment and react to them, besides the sensor<br />

function, they also have an actuator function; and<br />

• Very smart textiles go a step further, having the gift to<br />

adapt their behavior to the circumstances.<br />

• Intelligent materials, are those which are capable of<br />

responding or activating to perform a function in a manual<br />

or pre-programmed manner<br />

1.2<br />

Components of Interactive Wear<br />

Interactive Wear has the following elements / components in<br />

them to ensure its functionality:<br />

• A packaging and interconnect technology for deep textile<br />

integration of electronics. This would involve Integration of<br />

micro electronics into a circuit board, and Interconnection<br />

and Encapsulation of this circuit board with the smart textile<br />

fabric with conductive wires.<br />

• A power source. This could come from batteries, solar<br />

cells, fuel cells or a transponder. Various innovative<br />

supplies can also be used namely, Electromagnetic<br />

conversion, Piezoelectric conversion or Thermogenerator.<br />

the, human body bay also be used as a source of energy.<br />

• Radio Frequency Identification (RFIDs), Global Positioning<br />

System (GPS), Global System for Mobile (GSM), interwoven<br />

textile antennas for data transfers and communication links.<br />

• A self-organizing network of electronic controllers for<br />

external devices, wall and floor textiles etc<br />

• Sensors in terms of microphones, cameras, temperature,<br />

acceleration.<br />

• Actuators such as earphones, speakers, LEDs, heating<br />

elements<br />

• User interface: LEDs, Textile switches, acoustical feedback<br />

02


03<br />

1.3<br />

Application Areas of Interactive Wear:<br />

Electronic textiles have their applications in a wide array of fields.<br />

On one end of the spectrum there are pragmatic applications<br />

such as military research into interactive camouflage or textiles<br />

with nanorobots that can heal wounded soldiers. On the other<br />

end of the spectrum, there is work being done by artists and<br />

designers in the area of reactive clothes - “second skins”, that<br />

can adapt to the environment and to the wearers and that can<br />

express aspects of their personalities, their needs and their<br />

desires, and represent aggregate social information.<br />

Listed below listed are the various market segments for the<br />

application of Interactive wear, along with recent developments<br />

in each one of them.<br />

Games, Entertainment & Communication:<br />

• MP3 player controls, mainly iPod<br />

• The speech-controlled MP3-player demonstrator system<br />

designed into a sports jacket<br />

• Infineon Technologies, a major semiconductor product<br />

maker, has helped develop an experimental jacket with an<br />

integrated MP3 player. A flexible woven inch-wide ribbon<br />

carries sound to the MP3 player’s headphones.<br />

• A more integrated MP3 version of the jacket is in the works.<br />

Such electronic ribbon may also be used for wireless<br />

communications, for example, to locate a hiker trapped<br />

under snow in an avalanche.<br />

• The ‘Nike’+ line has launched a new ‘Nike’+SportBand<br />

wristwatch which links with a sensor in the ‘Nike’+ footwear,<br />

enabling runners to get real-time performance feedback with<br />

details such as distance, pace, time and calories burned.<br />

This allows the user to properly track their performance and<br />

adujust as per his/her requirements.<br />

Security:<br />

• Interactive camouflage fabric is used by the military but may<br />

also become a wearable electronic network to send and<br />

receive data.<br />

• Much of the smart-fabric, “soldier of the future” research<br />

is centered at the US Army Soldier Systems Center in<br />

Natick, Massachusetts. There, scientists and technologists<br />

are tackling a variety of textiles that can transport power<br />

and information. One example is a soldier sticking his<br />

or her intelligent glove finger into water to see if it is safe<br />

to drink. The soldier could communicate with others by a<br />

fabric keyboard that might be unrolled from the pocket of a<br />

uniform, or simply sewn or woven in as part of the uniform’s<br />

sleeve.<br />

• The Soldier Systems Center has already collaborated with<br />

Foster-Miller Inc., a Waltham, Massachusetts, an engineering<br />

and technology company, to develop a fabric-based version<br />

of a Universal Serial Bus(USB) cable<br />

• This is ongoing research for a future combat dress that<br />

might keep soldiers warm and fight off germs, and eventually<br />

detect and fight chemicals and other dangerous agents.<br />

Safety and Localization:<br />

• Companies are working towards the adaptation where<br />

paper maps would be replaced with electronic systems.<br />

An example of this would be a Know Where Jacket (CeBIT,<br />

2006) which would enable navigation and routing options for<br />

the wearer. This would help enable rescue operations and<br />

ensure safety.<br />

• Various technological advances would make it further<br />

refined. With GPS for outdoor localization, GSM/GPRS<br />

for continuous data transmission, application like Google<br />

Maps and Google Earth would serve as data for outdoor<br />

activities.<br />

Health care & Sports<br />

• Biofeedback–Integrated pedometers, heart rate monitors or<br />

temperature sensors provide physiological information to<br />

the athlete<br />

• Intelligent trainer–System communicates to the athlete by<br />

audio feedback or display information (suggests, motivates,<br />

warns)


• Music pacing–Continuous adaptation of music speed to the<br />

average steps per minute enhances the training effect<br />

• Personal health monitoring–Sensing and pre-processing<br />

of heart beat, breath, temperature, motion, etc. signals for<br />

health care applications<br />

• The College of Textiles at North Carolina State University, in<br />

Raleigh, has been working on a flame-retardant compound<br />

that could be used in children’s clothing or toys, as well as<br />

soldiers’ uniforms or even Formula One car racing suits.<br />

• A team at University of Massachusetts is devising molecules<br />

that act in much the same way as cells in the human body<br />

to combat germs. Such molecules, called polymers and<br />

oligomers, can then be embedded into clothing.<br />

1.4<br />

Major Players in this Field<br />

Performance clothing segment<br />

Monitoring health and vital signs, commercial<br />

products in 2007<br />

Smart Fabrics<br />

Electronics Components Manufacturers<br />

Electronics OEM’s<br />

System Integrators<br />

Research Institutes<br />

• Adidas<br />

• O’Neil<br />

• Nike<br />

Others:<br />

• VivoMetrics (Lifeshirt)<br />

• Adidas, Numetrex<br />

• Philips Design, a diversified Health and Well-being<br />

company, focused on improving people’s lives through<br />

timely innovations, has developed a series of dynamic<br />

garments as part of their ongoing SKIN exploration research<br />

into the area known as ‘emotional sensing’. The garments,<br />

demonstrate the way electronics can be incorporated into<br />

fabrics and garments in order to express the emotions and<br />

personality of the wearer.<br />

• Solar cells in bags and jackets to charge consumer<br />

devices<br />

• In the more distant future it might be possible to change<br />

the color of pants from dark to white if, say you are traveling<br />

from cold to a hot climate.<br />

• Toray Industries Inc (polyester and nylon shape memory fabrics)<br />

• Philips<br />

• Infineon<br />

• Motorola<br />

• CSR<br />

• Philips<br />

• Nokia<br />

• Motorola<br />

• Interactive Wear, Ohmatex, Fibretronix<br />

• Clothing+<br />

• Polar<br />

• NCSU – North Carolina State University College of Textiles<br />

• Wearable computing Lab, Swiss Federal Institute of Technology -ETH Zürich<br />

• Centexbel<br />

• TITV (Textilforschungsinstitut Thüringen-Vogtland)<br />

• ENSAIT – Ecole Nationale Supérieure des Arts et Industries Textiles<br />

• SmartWearLab – Tampere University of Technology<br />

• IITD - Indian Institute of Technology Delhi<br />

04


05<br />

Making smart fabrics affordable, workable and user friendly is<br />

still a few years away off. Other challenges faced are weight of<br />

batteries, safety, efficiency and other improvements.<br />

Textiles are present everywhere and at any point of time. The<br />

economic value and impact of textiles is enormous. The advent<br />

of smart textiles makes it possible to bring the traditional textile<br />

sector to a level of high-technological industry. Moreover,<br />

it appears that this is possible only by intense co-operation<br />

between people from various backgrounds and disciplines.<br />

Technology domains such as biotechnology, computer<br />

science, microelectronics, polymer chemistry, material science,<br />

etc. look at textile possibilities from a different perspective and<br />

usage. The development of smart textiles has started at a cruise<br />

speed. A part of the new materials and structures has already<br />

reached the stage of commercialization; a much larger<br />

part however, is still in full development or still has to be<br />

invented. This applies especially for very smart textiles. This<br />

phase is expected to be reached by 2010.<br />

No matter how strongly integrated, the functional components<br />

remain as non-textile elements, thusmaintenance and<br />

durability are still important issues. In the second generation,<br />

the components themselves are transformed into full textile<br />

materials.


2. Economic Sustainability:<br />

Textiles Get Responsible<br />

Environmental sustainability is the ability to maintain the qualities that are valued in the physical environment.<br />

It is clearly emerging that the world’s coastline and watersheds are increasingly affected by economic changes and environmental<br />

degradation, consumers have become edgy about the effect of human activity on the environment. In such a scenario, environment<br />

sustainability has become an industry in itself.<br />

With increasing concerns regarding the effect of the textile industry on the environment, at all stages of its chain, i.e. raw material,<br />

fiber, fabric, apparel, processing; more and more textile researchers, producers and manufacturers are looking to biodegradable<br />

and sustainable fibers as an effective way of reducing the impact textiles have on the environment.<br />

Mentioned below are examples (2.1 to 2.4) of textile companies across the globe using innovative technologies to reduce this<br />

burden. Organic farming and organic cotton are the best examples of this type of sustainability and much has been already<br />

written about the same. The listed examples are an attempt to explore more options within the textile chain and familiarize you<br />

with companies which are doing such changes.<br />

2.1<br />

Synthetics Use Technology to Get<br />

Green<br />

Synthetics have always been considered a difficult chapter<br />

of textiles when related to the environment factor. They are<br />

produced from a depleting resource, i.e. crude oil. However,<br />

the advantages they present to the user ensure that they still<br />

hold an important position in the textile chain. Synthetics are<br />

easy-care, need less washing at a lower temperature thereby<br />

reducing power and water usage in aftercare. They also require<br />

less ironing and have a longer life as they wear better.<br />

At the Premiere Vision 2008 which is one of the most important<br />

textile and apparel Trade shows world wide, Toray launched<br />

its “Ecodream”, which is a 100%-recycled polyester nylon. By<br />

reusing waste from its own nylon fiber production, the company<br />

has created a nylon 6 staple yarn and resulting woven fabric<br />

that is both, of a high quality and environmentally friendly.<br />

This recycled yarn requires considerably less energy to<br />

produce than virgin nylon yarn and emits lesser CO2 by as<br />

much as 80% compared with virgin polyester production.<br />

Additional benefit is the reduction of waste since Toray’s waste<br />

is now its new raw material.<br />

2.2<br />

Creating Products Out of Recycled<br />

Textiles<br />

Polyester is seen as one of the most straightforward fibers to<br />

reprocess and many companies have researched extensively<br />

on recycling this fiber.<br />

In 1993, Pantagonia, the outdoor gear and apparel company<br />

adopted polyester fleece into their product line made from<br />

post consumer recycled plastic soda bottles.<br />

In 2005, in partnership with Teijin, Pantagonia announced a<br />

garment take-back recycling program for its products and later<br />

extended it to include products made by competitors as well.<br />

Teijin has also introduced EcoCircle, a fiber-to-fiber recycling<br />

system where worn-out polyester garments are recycled<br />

into virgin-quality fibers by breaking down the fabric to the<br />

molecular level and creating new polyester raw material.<br />

At the ‘Outdoor Retailer Show’ 2007, Concept III which is a<br />

textile based solutions company that helps brands develop<br />

products has introduced eco-friendly fleeces that are as soft<br />

and luxurious as many of the virgin fleeces currently available<br />

in the market. The polyester yarn comes from recycled plastic<br />

bottles.<br />

Concept III’s range of ‘Cocona’ knits and fleeces, include all of<br />

the inherent performance qualities from a naturally renewable<br />

and unusual natural resource, the coconut.<br />

06


07<br />

Most recently, UK Retailer Marks & Spencer announced that<br />

it has developed a range of school wear made from recycled<br />

plastic bottles, the first retailer to launch this brand new<br />

innovation.<br />

Project Alabama, a clothing label founded in 2000 in the United<br />

States, is themed around sustainability. This year, the label<br />

has launched t-shirts called “Green T”. The 100 percent cotton<br />

t-shirts, each one-of-a-kind, use recycled fabric, water soluble<br />

dyes and hang tags and labels hand printed on recycled<br />

fabric.<br />

Another important term is ‘Upcycling’ which is becoming a<br />

more dynamic approach to recycling. Under this concept the<br />

original products are recreated and value added for product<br />

longevity. The clothing label Project Alabama, sells embellished<br />

recycled materials that are hand-sewn by local artisans. There<br />

are a few labels that have taken this even further and aim to<br />

create a service for its customers where clothes are sent back<br />

to be remade using new components.<br />

2.3<br />

Textiles Revert to their Original State<br />

as Bio-degradable Material<br />

Bio degradable textiles is another important aspect for<br />

maintaining environment sustainability and much research<br />

has been done in this regard by manufacturers worldwide.<br />

Textile companies like Raymond and China Bambro Textile<br />

Company have introduced bamboo fabrics, which besides<br />

having anti-bacterial properties, is a 100% bio degradable<br />

fiber; ever while decomposing, it does not cause any pollution<br />

or harm to the environment.<br />

Three companies - YKK Fastening Products, Toray and<br />

Ichimura Sangyo released an eco-conscious, biodegradable<br />

fiber called APEXA in 2007. The fiber produces eco-friendly<br />

garments, which can be changed back to a harmless natural<br />

state by the action of bacteria, thereby limiting damage to the<br />

environment.<br />

Interface Fabrics, a leading US based carpet and home textile<br />

manufacturer has announced BioBac, a new coating made of<br />

100% bio-degradable materials designed to replace acrylic<br />

and rubber latex backing for upholstery, wall covering and<br />

panel fabrics. BioBac can be removed from fabric through the<br />

application of heat and water thereby no longer hindering the<br />

recycling of the main fabric.<br />

2.4<br />

Final Processing, Green<br />

Processing<br />

Fiber and chemical companies are looking at new finishing<br />

processes that use less, or no water and instead use chemicals<br />

and technology as sources of environmental solutions.<br />

In this regard, easy-care finishes that require less washing and<br />

laundering are being looked into. Finishes like bio-polishing<br />

that use natural enzymes have been developed to modify the<br />

surface of cotton fabrics to prevent permanent pilling and<br />

increase softness.<br />

Latest example includes prominent Italian laundry and garment<br />

finishing company Martelli Lavorazioni Tessili. The company<br />

has been receiving requests from their premium customers for<br />

garment dyes using natural plant-based materials.<br />

Likewise, Freshtex, a German washing, finishing & design<br />

development company has recently obtained certification for<br />

its eco-friendly laundry facility at the plant in Turkey, and will<br />

shortly be extending this to Sri Lanka.<br />

As can be seen from the above examples, companies are<br />

becoming conscious and addressing this sustainability issue<br />

in myriad ways. The gap lies in educating the consumer on<br />

these updated technologies and their positive effect on their<br />

surroundings. Media can play an important role in educating<br />

the consumer in this aspect by running campaigns and<br />

promoting this aspect of textiles.


3. Comfort & Ease:<br />

Garments Become an Extension of<br />

Human Comfort<br />

Consumers are increasingly looking for garments that offer more than style and fashion. They want clothing that look and feel<br />

great whilst providing a sense of well-being for the wearer.<br />

There are many textile companies engaged in technological research for such adding comfort and ease to textiles as well as<br />

apparel. Innovations are being constantly done in fiber, fabric and garment stage to enhance the comfort of user, i.e. garments<br />

that are not a hindrance to movement, allow air to pass through, are easy care, easy iron and give better hand feel, drape and<br />

flexibility, etc.<br />

The following examples (3.1 to 3.4) show such advances made by some companies<br />

3.1<br />

Wellness of user, not an<br />

afterthought anymore<br />

As well - being becomes important to consumers, textile<br />

companies such as Invista, the parent company of Lycra have<br />

introduced fabrics that not only increase comfort to the wearer<br />

but also have properties to release scents for general wellness<br />

of user.<br />

“Lycra spaFX” fabric uses microencapsulation to either<br />

deliver well-being benefits such as aloe vera to the skin, or to<br />

release aromatherapy scents. Similarly, Lycra freshFX fabrics,<br />

designed to offer cooling and breathability effects for garments<br />

such as sleepwear, release aloe vera and scents while another<br />

product offered in this range features fabrics with quick-drying<br />

benefits.<br />

Merino Innovation, an initiative of Australian Wool Innovation<br />

(AWI) offers “moisturizing Merino garments” that contain<br />

moisturizers and other natural products that release during<br />

wear to enhance comfort.<br />

3.2<br />

Easy to Wear, Easy to Care<br />

With pressing time constraints, consumers are increasingly<br />

looking for easy care options for apparel, and companies are<br />

looking at options to create this for consumers.<br />

Under this, one of the latest and most popular product is the<br />

‘One-of-a-Kind Shower Clean Suit” which was launched by<br />

Konaka stores, Japan, in spring/summer 2008 in collaboration<br />

with AWI. This is the world’s first wool based non-iron suit that<br />

can be rinsed under a normal shower stream. The suit can<br />

be washed in the evening and ready to wear the following<br />

morning, with no ironing required.<br />

Dirt, smoke, smog, smells, stains can be washed off without<br />

using detergent within a few minutes of washing under a 40<br />

degree shower. With a hollow fabric structure, the suit allows air<br />

to pass through easily and is a blend of wool and polyester.<br />

Water repellent additives are added to the suits and machine<br />

washable interlinings, while eco-super 3D processing is used<br />

to maintain shape. The final finish uses the natural amino acid<br />

L-cysteine - a type of amino acid contained in hair, nails and<br />

skin, to maintain the Shower Clean Suit’s clean shape.<br />

Another example is of “Easy Iron Merino” introduced by<br />

AWI. uses technology for smoother drying properties so that<br />

the amount of creasing is minimized during washing and<br />

subsequent drying. It is applied to finer gauge knitted products<br />

where ironing tends to be more difficult and time consuming.<br />

08


09<br />

3.3<br />

Comfort no longer a luxury, but<br />

a necessity<br />

Comfort is one of the most important aspects for garments<br />

that can affect the wearability of a garment. Comfort is seen<br />

in a new perspective with increasing use of lightweight fabrics<br />

and use of yarns for ease of use.<br />

Invista has introduced XFIT LYCRA® fabric that allows one to<br />

move in 360 degrees. This 360-degrees movement and good<br />

recovery can accommodate different body shapes, postures<br />

and movements. In 2007, this was launched by retailers like<br />

Barney’s and True Religion.<br />

Invista also launched FreeFit Lycra at New York Fashion<br />

Week 2007 that is designed to provide softness, breathability,<br />

comfort and shape retention in shirting as well as women’s<br />

wear garments.<br />

Another note worthy product is ‘The Su Su suit’ launched by<br />

Australian Merino wool in 2007 which is a new summer wool<br />

suit that breathes like a T-shirt. The fabric specially developed<br />

for the Su-Su-Suit provides air permeability – allowing six times<br />

as much air to pass through than a normal dress shirt would.<br />

When combined with its superior breathability, the fabric<br />

enjoys doubled cooling effect equal to around a 4ºC degree<br />

reduction in temperature compared with that of conventional<br />

mid-summer suiting fabrics.<br />

A total of 30,000 units were produced for the summer<br />

2007 launch. The product was well received by Japanese<br />

businessmen who have to wear jacket and tie even in the “Cool<br />

Biz” conforming company offices (with air conditioning set at<br />

28 degrees to conserve energy and reduce CO2 emission<br />

3.4<br />

Fibers to add luxury<br />

Consumers seek not only comfort and ease from apparel, but<br />

also added luxury to stand apart as a fashion statement. There<br />

are a few innovations that have been classified and listed in<br />

this category below<br />

The Optim process developed by The Woolmark Company<br />

maintains many of wool’s natural attributes and adds enhanced<br />

properties. The fiber can be used as a blend component with<br />

cashmere. The luxury Optim development is intended to<br />

provide a completely new fiber: wool that is 3 microns finer<br />

than the original wool. Garments offer excellent drape, handle<br />

and luster. This is already being used to make apparel.<br />

Similarly, Arcana is a new generation ultra-fine woolen<br />

fibre for creating garments with a natural luxurious softness.<br />

Arcana is unique since it provides surface lustre and softness<br />

and can be dyed into full, bright shades. It is now being used<br />

for menswear and women’s wear, in knitwear and woven’s, in<br />

both worsted and woolen (and even short staple). It is specially<br />

recommended for knitwear since it is lightweight with luxurious<br />

next-to-skin softness quality.<br />

As can be seen from above examples, there is immense<br />

technology that is going into creating comfortable apparel<br />

and there are many companies dedicated to this research<br />

and development. Companies need to create awareness<br />

among consumers to increase the demand for such innovative<br />

products since consumer demand can only make such<br />

products a commercial success.


4. Functional Fabrics:<br />

Making Textiles Work for You<br />

The field of functional fabrics has witnessed an influx of new technologies, new products and materials to meet the challenges of<br />

the needs of new industries - such as computer, electronics and telecommunication industries as also to meet the performance<br />

objectives of the sports and healthcare industries.<br />

New regulations, standards and testing methods, as well as instruments, are essential for assessing and defining these needs.<br />

These new regulations present new challenges to the industry. With new fibers/blends rapidly changing the economic situation,<br />

today’s manufacturer needs to be fully aware of the new regulations and the products and processes that will meet them.<br />

Companies that adopt the latest technology will have the edge in providing superior products with the best balance of properties<br />

at the lowest possible price.<br />

High-performance textiles and yarns are manufactured using high technology fibers like para-aramid, meta-aramid, fire resistant<br />

rayon, glass fibre, pre-oxidised acrylic. Functionality can be added to a fabric by applying varied treatments and finishes, by<br />

application of nanotechnology, by blending of ultra fabric / fibre or by usage of microfibers.<br />

The following examples (4.1 to 4.5) are methods / ways by which functionality can be added to textiles<br />

4.1<br />

Textile Finishes<br />

Textile finishes enhance the feel and drape of fabrics. This<br />

involves the addition of sizing, weighting, fulling and softening<br />

agents, which may be either temporary or permanent.<br />

Thermochromic i.e. changing color according to temperature<br />

is a function that can be added to a textile material through<br />

finishes applied to it. Two types of thermochromic systems<br />

that have been used in textiles are: (1) the liquid crystal type<br />

and (2) the molecular rearrangement type. In both cases, the<br />

dyes are entrapped in microcapsules, applied to garment<br />

fabric like a pigment in a resin binder. The most prominent<br />

types of liquid crystals are the so-called cholesteric types,<br />

where adjacent molecules are arranged so that they form<br />

helices. Thermochromism is a result of the selective reflection<br />

of light by the liquid crystal. The other method of inducing<br />

thermochromism is through rearrangement of the molecular<br />

structure of a dye as a result of a change in temperature. The<br />

most common types of dyes that exhibit thermochromism<br />

through molecular rearrangement are the spirolactones.<br />

Another functional example is that developed by a textile<br />

company, Phild, which is a method of spraying or impregnating<br />

fabrics with a solution containing titanium powder which<br />

enhances the wearer’s health.<br />

Similarly, Reflex Holding, a Norway based textile company has<br />

developed a technique which improves the heat transfer of<br />

coloured patterns to fabrics<br />

3XDRY® (by Schoeller Technologies AG, which is a globally<br />

active licensing company for innovative textile technologies)<br />

is another example where finishing technology has been<br />

developed to provide a treatment that retains water resistance<br />

on the face of a fabric which increasing wicking on the back.<br />

The two functions are truly separated within the fabric, which<br />

remains highly breathable.<br />

The use of synthetic fibres and blends in such items as shirts,<br />

hosiery, blouses and underwear has increased the need for<br />

anti-microbial finishes on clothing. The moisture-transport<br />

characteristics of such blends tend to cause a greater degree<br />

of “perspiration wetness that occurs with fabrics of wholly<br />

natural fibers.<br />

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11<br />

4.2<br />

Combining Textile and Non-Textile<br />

Materials<br />

Functionality can also be added in a fabric by the combinations<br />

of Textile & Non-textile Materials. Some examples are listed<br />

below:<br />

• Combination of Stainless Steel Fiber with Cotton & Polyamide<br />

to create a soft & flexible cloth.<br />

• Combination of cotton, copper, polyamide and polyurethane<br />

to create a metallic surface.<br />

• Light Emitting Diodes (LEDs) embedded in hand-woven linen,<br />

that are programmable and controllable through sensors.<br />

These can be used in creative arts practice, sportswear &<br />

medical use, as well as in interactive costumes for dance,<br />

theatre and expressive gallery textiles.<br />

• Metals & Papers in combination with silks & polyesters.<br />

• A technology has been created to convert proprietary<br />

materials into miniature reflectors that, when imbedded<br />

into fabric by the millions, reflect oncoming light, (such as<br />

automobile headlights) in a way that illuminates the full<br />

silhouette of a person, bicycle or any other object.<br />

4.3<br />

Nano Metal Coating<br />

Masa is a new nano-metal coating developed by the Suzutora<br />

Corporation, a Japanese firm engaged in textile technologies,<br />

to provide textile fabrics employed in a variety of applications<br />

and with a range of functional advantages. Masa-coated<br />

fabrics can, for instance, reflect rays from the sun, including<br />

UV (Ultra Violet) and infrared rays, making them very useful<br />

as curtain fabrics, They can act as sunscreens, offer visual<br />

protection and are said to be capable of lowering a room’s<br />

temperature 2-3°C more than conventional sunscreen textiles.<br />

This suggests that with high outside temperatures there will be<br />

clear energy savings to be made, with less cooling required<br />

from air conditioning systems. In addition, while the Masacoated<br />

fabrics are transparent from within, they prevent people<br />

outside from looking in.<br />

4.4<br />

Blending of Fabrics / Fibers<br />

Functionality can also be added in a fabric by the combination<br />

of blending various fabrics and fibers. Some examples are<br />

listed below:<br />

• Natural Fibers Blended with Synthetics to Improve Strength,<br />

Crease Resistance & Easy Care<br />

• Polyamide (warp) and paper (weft) woven together and then<br />

hand silkscreen printed. This exquisite fabric, designed in a<br />

customized manner in Japan, is used for high-end interiors.<br />

• Microfiber with metal foil spots combine to give a consistent<br />

metallic finish. This blend can be used for high-end fashion<br />

garments (especially outerwear)<br />

• In another combination, Nuno Corp, a Japanese firm which<br />

creates innovative textiles combining traditional aesthetics<br />

with the latest computer and synthetics technologies,<br />

prepared a blended fabric in which bamboo fibers were<br />

combined with rayon, silk, polyamide and polyurethane.<br />

Bamboo has anti-bacterial and anti-odour properties.<br />

• A Finnish company used peat and wool to create a blend<br />

that has anti-bacterial properties and absorbs radiation.<br />

• Fabrics with charcoal as a component can filter odour<br />

and pollution. In 2001 The Japanese company Nuno Corp<br />

developed a blend fabric made of wool, silk, charcoal,<br />

polyamide and polyurethane. Charcoal was used for its<br />

health-giving properties as it has the ability to absorb<br />

chemical impurities in the air.<br />

4.5<br />

Ultra Microfibers<br />

Using the latest in microtechnology, scientists are building<br />

fabrics where the fiber itself is scrutinized and manipulated in<br />

minute detail. Microfibres were originally intended for space and<br />

military applications, but textile designers today prefer them<br />

for their unique appeal. A microfiber is by definition a material<br />

in which the yarn’s thickness is equal to or less than 1/60th the<br />

thickness of an average human hair. Ultra-microfibers in the<br />

market are even finer – some having thickness of just 1/200th<br />

the thickness of human hair.


Microfiber fabrics are easy to care for, machine-washable and<br />

will not lose their shapes. Fabrics constructed from microbers<br />

can also be made windproof whilst breathable. These two<br />

qualities together imply that the fabrics prevent the smallest<br />

drops of water from entering while allowing the water vapour<br />

from perspiration to pass through. These properties result<br />

in these fabrics maintaining an even body temperature in all<br />

types of weather conditions. It is also possible to have a range<br />

of finishing for the Microfibers – crushed and wrinkled finishes<br />

that are thermochromic, antibacterial, anti-UV (those that can<br />

prevent ultra-violet rays from entering), light sensitive and<br />

deodorant. Microfiber blends are used in both prêt-a-porter<br />

and haute couture fashion, since these fabrics have a unique<br />

appearance and excellent tactile qualities.<br />

Some other key developments in this sector:<br />

Scientists in France have developed a rubber-like material<br />

that can self-heal after being snapped in two, offering hope<br />

for a future where certain products are simply able to mend<br />

themselves.<br />

A Japanese company (Omikenshi, engaged in production,<br />

processing and sale of fibers) has developed a type of viscose<br />

made from crab shells. This fiber is claimed to have antibacterial<br />

properties.<br />

Flexible protection materials are striving to transform traditional<br />

protective clothing. These materials stiffen on impact to<br />

provide protection when necessary, but also allow comfort<br />

and freedom of movement when they are not being called into<br />

action.<br />

Conclusion<br />

Fashion is often at the forefront of technology usage. Often<br />

new materials and technologies are used in textiles and<br />

accessories when they are still too expensive or primitive for<br />

other uses. Technology development is on a fast track and<br />

shows no sign of slowing down in the foreseeable future.<br />

Hence, thefashion fraternity will have a lot of fun over the coming<br />

years. The next decades will see the gradual convergence of<br />

nanotechnology, biotechnology, information technology and<br />

cognitive technologies. Typical results will be materials with<br />

different tensile, thermal and optical properties, integration of<br />

information technology into fabrics, and linkage of our bodies<br />

to the network for medical and communication purposes,<br />

via clothing or skin-wearables. This will be to an extent that<br />

functional components are themselves textile material.<br />

To summarize the key points:<br />

• Wearable technology continues to impress<br />

• Sustainability is vital throughout the industry<br />

• The field of functional fabrics has witnessed an influx of new<br />

technologies, new products and materials.<br />

• Other than style and fashion, Comfort, Ease (of maintenance)<br />

and Well Being are important attributes being desired.<br />

One thing is certain, in years to come, technological advances<br />

done today will change forever the way we dress, the way our<br />

clothes look, what clothes do for us and the way our world<br />

looks today.<br />

Companies are exploring an innovative and modern<br />

interpretation of textiles, inspired by contemporary cultural<br />

awareness and advances in technology - an area that has<br />

become fully integrated into everyday life.<br />

12


Glossary<br />

1. CSIRO Textile and Fibre Technology<br />

2. Interactive Wear AG<br />

3. Intelligent Polymer Research Institute,<br />

4. ARC Center for Nanostructured Electromaterials<br />

5. Infineon Technologies AG,<br />

6. “Ambient Intelligence, the Next Paradigm for Consumer Electronics: How Will it Affect Silicon?”,F. Boekhorst, ISSCC<br />

7. SMART TEXTILES FOR WEARABLE MOTION CAPTURE SYSTEMS. AUTEX Research Journal<br />

8. Smart clothing: a new life; International Journal of Clothing<br />

9. Science and Technology<br />

10. www.wgsn.com<br />

11. www.foster-miller.com<br />

12. www.design.philips.com<br />

13. www.toray.com<br />

14. www.patagonia.com<br />

15. www.teijin.co.jp<br />

16. www.conceptiii.com<br />

17. www.marksandspencer.com<br />

18. www.projectalabama.com<br />

19. www.raymondindia.com<br />

20. www.bambrotex.com<br />

21. www.ykkfastening.com<br />

22. www.interfaceinc.com<br />

23. www.merinoinnovation.com<br />

24. www.reflex.se<br />

25. www.nuno.com<br />

26. www.omikenshi.co.jp


Contacts<br />

Prashant Agarwal<br />

Vice President<br />

prashant.agarwal@technopak.com<br />

Ashish Dhir<br />

Associate Vice President<br />

ashish.dhir@technopak.com<br />

Priya Sachdeva<br />

Senior Consultant<br />

priya.sachdeva@technopak.com<br />

Neha Dhawan<br />

Consultant<br />

neha.dhawan@technopak.com<br />

<strong>Technopak</strong> Advisors Pvt. Ltd.<br />

Head Office<br />

4th Floor, Tower A, Building 8<br />

DLF Cyber City, Phase II,<br />

Gurgaon 122 002<br />

(National Capital Region)<br />

T: +91-124-454 1111<br />

F: +91-124-454 1198<br />

Bangalore<br />

11B 11th Floor,<br />

Canberra Block (East),<br />

UB City, 24, Vittal Mallya Road<br />

Bangalore 560 001<br />

T: +91-80-4034 8600<br />

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Mumbai<br />

101-105, 2nd Floor,<br />

Sunjana Tower<br />

Sun Magnetica Service Road,<br />

Luis Wadi, Thane West,<br />

Mumbai 400 602<br />

T: +91-22-2583 2222<br />

F: +91-22-2583 8408<br />

www.technopak.com


textile & apparel<br />

Textile & Apparel Practice<br />

<strong>Technopak</strong> Advisors Pvt. Ltd., 4th Floor, Tower A, Building-8, DLF Cyber City, Phase II,<br />

Gurgaon-122002 (National Capital Region), India<br />

T: +91 124 4541111 F: +91 124 4511198-99<br />

www.technopak.com


t e c h n o p a k<br />

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t e c h n o p a k<br />

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