Showing posts with label Articles. Show all posts
Showing posts with label Articles. Show all posts

Friday, January 1, 2010

Where to Download Software for Watching Television on Computer Free?



By Ronald Gilbert

Are you interested in finding out the steps for watching television on computer? Many people around the world, including me, are able to watch TV channels on our PCs now. These channels come from all over the world in different categories and languages. To make this possible, you will need to download a satellite TV on PC software that allows your computer receive signals through the web.

What Are the Features of a Satellite TV for PC Software

1. Wide Variety of Channels

This program allows viewing of over 3,000 international channels through the internet, although to be honest I don't have the time to go through all of them. It is still good to have a wide variety of channels to choose from, since it ensures that you will be able to find whichever type of programme you want to watch.

2. Watch TV in Your Favorite Languages

The channels are broadcasted in many different languages other than English. Some examples of other languages I have found include Japanese, Urdu, English, French, German, Chinese, Italian, Farsi, Spanish, Swedish, Portuguese, Dutch, Norwegian, Russian, Indian and others just to name a few. The quality of pictures and sound has been very good for me too.

What Are The Requirements To Use This Software?

In order to use Satellite TV for PC, you need to have a working PC with a high speed internet connection. Your web connection should be at least broadband and above. A slower connection may not be able to receive the signals smoothly, which may result in a poor TV viewing experience especially when watching live channels.

Conclusion

There are many different software on the internet that claim to be able to bring satellite TV technology to your PC, but I would not advise you to try them until you know about people using them successfully. I have personally bought cheap software that would either crash every time I try to open them, or unable to broadcast any channels. To find out where you can download the software that I am using, visit the website link below to find out more.

Are you looking to Watch Television on Your Computer? Don't do it yet, because the author has found many Scam satellite TV software on the web. Read the author's review of the Top 5 Satellite TV Software on the market now at http://www.review-best.com/satellite-tv-software-downloads.htm first!

The author is currently using a Satellite TV for PC software to watch over 3,000 channels on his computer for free. CLICK HERE to learn more about it!

Article Source: Watching Television


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Wednesday, October 28, 2009

Plasma Processes and Polymer


Download Link..
http://www.esnips.com/nsdoc/536832f5-b37f-461e-ae92-8f5a2f9a1940/?action=forceDL

Plasma Processes and Polymer


Download Link..
http://www.esnips.com/nsdoc/536832f5-b37f-461e-ae92-8f5a2f9a1940/?action=forceDL

Plasma Chemistry


Plasma Chemistry


Computational Textile


Download Link

Computational Textile


Download Link

Monday, October 19, 2009

Wearable and Implantable Body Sensor


Wearable and Implantable Body Sensor


Wednesday, September 9, 2009

Applied Technology: Applying Antimicrobials to Textiles By : Maria C. Thiry

Applied Technology: Applying Antimicrobials to Textiles
By : Maria C. Thiry

Source: AATCC


There are many options to weigh when considering which antimicrobial is best for a particular product. Application method is an important aspect to examine in more detail.


According to Damien Fruchart, textile engineer with Asix International Development Consultancy, there are three main options for applying an antimicrobial agent to textiles. Each has its own advantages and challenges.


The first option is treating the fabric through an "aqueous process" in the finishing line with the antimicrobial substance. The second is incorporating the antimicrobial into or onto the fiber itself. A third application method, according to Fruchart, is post-consumer, "an additive designed to be added to the laundering water each time the product is washed."


Applied to the Fabric


The benefit of topical antimicrobial treatment applied to the fabric during the finishing stage is that "Topical application is more versatile," says Jeff Trogolo, chief technology officer for antimicrobial supplier Agion. "It's later in the process and gives the retailer more flexibility about which fabric to choose." A topical antimicrobial finish is appropriate for any use that uses a relatively small amount of fabric, or one that mixes many different fiber types, Trogolo says.


Washfastness is key, says Hirotoshi Goto, professional engineer JP for fabric supplier Toray Industries. In Japan, the standard for wash durability is 50 washes at 80C for industrial laundering such as hospitals. For non-hygiene-critical applications such as home laundering, 20 washes at 40C is considered standard. Washfastness can be improved through the use of a highly durable resinous binder, which has better affinity with the agent and fiber and works like an adhesive, says Goto. "But this kind of resin is hydrophobic, and will give new problems," he says. Issues may include residual formaldehyde, or a fabric that is unable to absorb perspiration.


Goto says that a new method used by his company applies the antimicrobial as a fabric finish without a binder. Instead, the antimicrobial infiltrates into the synthetic fibers in a manner similar to a disperse dye. "This agent has especially high affinity with polyester fiber," says Goto.


Another challenge of using topical antimicrobial finishes, says antimicrobial consultant William D. Hanrahan, is that "each individual fiber and fiber blend has its own chemistry and its own way of being finished. You have to make sure that the antimicrobial doesn't interfere with any other finishes being applied to the fabric, and that the characteristics of the fabric-hand, water repellency, fire retardance-aren't changed."


Applied to the Fiber


Applying the antimicrobial directly into the fiber master batch during synthetic fiber formation is also popular. According to Hanrahan, adding the antimicrobial at the fiber stage narrows the field of antimicrobials that can be used because synthetic fibers are commonly extruded at high temperatures. This rules out most organic antimicrobials says Mark Wiencek of Milliken, because many are not thermally stable. "They may lose some of the active ingredients. Incorporation of antimicrobials into textile fibers during the spinning process (often via a master batch) is an application dominated by silver. This is because silver is thermo-stable," he says.


"Antimicrobial agents blended into the fiber can show superior washing durability, but take longer to work," says Goto. He also says that, since many of the fiber-application systems are metal-based antimicrobials, the color of the fiber can sometimes be affected.

Hanrahan says that another limitation of this application is that the retailer loses flexibility, because the antimicrobial is added far back into the supply chain. "It means you have to carry inventory. And the product may be marked up along the supply chain," he says. "This application tends to be more durable, but not as economical." According to Trogolo, this kind of application is best for end-uses that need large amounts of one kind of fiber, such as upholstery or uniforms.


Other Applications


Other ways of applying antimicrobials to textiles are less common. Noble Biomaterials' X-Static product is a "universal and permanent coating of silver on substrates from yarn to fabric," says the company's Chief Commercial Officer, Joel M. Furey. This system is "primarily intended where users need high levels of performance," says Furey. This means "high kill rates of bacteria and fungi with a fast kill action," he says.


Another product with a high kill rate is chlorine. According to Wiencek, n-halamine binders "have a unique way of dealing with antimicrobial treatments-they bind chlorine to the fabric, so that they can make claims that EPA-registered chlorine bleach can make." According to Fruchart, chlorine is "as good as any disinfectant. A 99.9% killing rate is reached within an hour, which is quicker than most other aqueous treatments." This is Fruchart's post-consumer after-treatment method.


The chlorine is used as an antimicrobial and is recharged onto the fabric by adding chlorine bleach to the laundry. A drawback to this system, says Wiencek, is that although this technology is intended for niches that require industrial laundering, not all industrial laundries use chlorine-based bleach.


Fruchart remarks that in a laminated product, "instead of treating the fabric, an antimicrobial agent is added in the adhesive. The active ingredient will radiate, thus creating an inhibition zone, while remaining resistant to laundering." Adhesive treatment makes it possible for laminated polyester fabric to maintain an antimicrobial activity despite prolonged washing cycles.


In a similar vein, Fruchart notes that "one technique, although not frequently used, consists of placing antimicrobial agents contingent in between two membranes. The membranes' permeability allows the controlled release of active ingredients, which migrate to the surface. This type of process is mainly....for products that do not get laundered, like mattress covers and separation curtains. With complementary methods, protection can last for several years."


A flexible technology like the Aegis SiQuat can be applied in or onto fibers, fabrics, or post-consumer laundry treatment, says Bob Montincello of Aegis Environments. "This versatility in application provides textile mills with options... [that] keep down costs and maximize performance," he says.


"The best application procedure for antimicrobial treatment will provide for mill qualification testing and good, solid SOPs, along with quality assurance procedures that are based upon useful chemical analytical and microbiological tests," says Curt White of Aegis Environments.


Does the Application Matter?


Depending on the product's end-use, the marketing claims made, the antimicrobial's chemical and physical properties, and its mode of antimicrobial activity, the antimicrobial's application does matter.


Some antimicrobials can be applied in several ways, but other technologies are limited to one mode of application. A product designer's main priorities, whether for flexibility, durability, cost, compatibility with other finishes, spectrum of microbes to be fought, or high-performance, may influence the application, and the antimicrobial, chosen to protect that product. Application matters!


Originally published in AATCC News; June 2009 © AATCC


About the Author


The author is associated with AATCC.


Applied Technology: Applying Antimicrobials to Textiles By : Maria C. Thiry

Applied Technology: Applying Antimicrobials to Textiles
By : Maria C. Thiry

Source: AATCC


There are many options to weigh when considering which antimicrobial is best for a particular product. Application method is an important aspect to examine in more detail.


According to Damien Fruchart, textile engineer with Asix International Development Consultancy, there are three main options for applying an antimicrobial agent to textiles. Each has its own advantages and challenges.


The first option is treating the fabric through an "aqueous process" in the finishing line with the antimicrobial substance. The second is incorporating the antimicrobial into or onto the fiber itself. A third application method, according to Fruchart, is post-consumer, "an additive designed to be added to the laundering water each time the product is washed."


Applied to the Fabric


The benefit of topical antimicrobial treatment applied to the fabric during the finishing stage is that "Topical application is more versatile," says Jeff Trogolo, chief technology officer for antimicrobial supplier Agion. "It's later in the process and gives the retailer more flexibility about which fabric to choose." A topical antimicrobial finish is appropriate for any use that uses a relatively small amount of fabric, or one that mixes many different fiber types, Trogolo says.


Washfastness is key, says Hirotoshi Goto, professional engineer JP for fabric supplier Toray Industries. In Japan, the standard for wash durability is 50 washes at 80C for industrial laundering such as hospitals. For non-hygiene-critical applications such as home laundering, 20 washes at 40C is considered standard. Washfastness can be improved through the use of a highly durable resinous binder, which has better affinity with the agent and fiber and works like an adhesive, says Goto. "But this kind of resin is hydrophobic, and will give new problems," he says. Issues may include residual formaldehyde, or a fabric that is unable to absorb perspiration.


Goto says that a new method used by his company applies the antimicrobial as a fabric finish without a binder. Instead, the antimicrobial infiltrates into the synthetic fibers in a manner similar to a disperse dye. "This agent has especially high affinity with polyester fiber," says Goto.


Another challenge of using topical antimicrobial finishes, says antimicrobial consultant William D. Hanrahan, is that "each individual fiber and fiber blend has its own chemistry and its own way of being finished. You have to make sure that the antimicrobial doesn't interfere with any other finishes being applied to the fabric, and that the characteristics of the fabric-hand, water repellency, fire retardance-aren't changed."


Applied to the Fiber


Applying the antimicrobial directly into the fiber master batch during synthetic fiber formation is also popular. According to Hanrahan, adding the antimicrobial at the fiber stage narrows the field of antimicrobials that can be used because synthetic fibers are commonly extruded at high temperatures. This rules out most organic antimicrobials says Mark Wiencek of Milliken, because many are not thermally stable. "They may lose some of the active ingredients. Incorporation of antimicrobials into textile fibers during the spinning process (often via a master batch) is an application dominated by silver. This is because silver is thermo-stable," he says.


"Antimicrobial agents blended into the fiber can show superior washing durability, but take longer to work," says Goto. He also says that, since many of the fiber-application systems are metal-based antimicrobials, the color of the fiber can sometimes be affected.

Hanrahan says that another limitation of this application is that the retailer loses flexibility, because the antimicrobial is added far back into the supply chain. "It means you have to carry inventory. And the product may be marked up along the supply chain," he says. "This application tends to be more durable, but not as economical." According to Trogolo, this kind of application is best for end-uses that need large amounts of one kind of fiber, such as upholstery or uniforms.


Other Applications


Other ways of applying antimicrobials to textiles are less common. Noble Biomaterials' X-Static product is a "universal and permanent coating of silver on substrates from yarn to fabric," says the company's Chief Commercial Officer, Joel M. Furey. This system is "primarily intended where users need high levels of performance," says Furey. This means "high kill rates of bacteria and fungi with a fast kill action," he says.


Another product with a high kill rate is chlorine. According to Wiencek, n-halamine binders "have a unique way of dealing with antimicrobial treatments-they bind chlorine to the fabric, so that they can make claims that EPA-registered chlorine bleach can make." According to Fruchart, chlorine is "as good as any disinfectant. A 99.9% killing rate is reached within an hour, which is quicker than most other aqueous treatments." This is Fruchart's post-consumer after-treatment method.


The chlorine is used as an antimicrobial and is recharged onto the fabric by adding chlorine bleach to the laundry. A drawback to this system, says Wiencek, is that although this technology is intended for niches that require industrial laundering, not all industrial laundries use chlorine-based bleach.


Fruchart remarks that in a laminated product, "instead of treating the fabric, an antimicrobial agent is added in the adhesive. The active ingredient will radiate, thus creating an inhibition zone, while remaining resistant to laundering." Adhesive treatment makes it possible for laminated polyester fabric to maintain an antimicrobial activity despite prolonged washing cycles.


In a similar vein, Fruchart notes that "one technique, although not frequently used, consists of placing antimicrobial agents contingent in between two membranes. The membranes' permeability allows the controlled release of active ingredients, which migrate to the surface. This type of process is mainly....for products that do not get laundered, like mattress covers and separation curtains. With complementary methods, protection can last for several years."


A flexible technology like the Aegis SiQuat can be applied in or onto fibers, fabrics, or post-consumer laundry treatment, says Bob Montincello of Aegis Environments. "This versatility in application provides textile mills with options... [that] keep down costs and maximize performance," he says.


"The best application procedure for antimicrobial treatment will provide for mill qualification testing and good, solid SOPs, along with quality assurance procedures that are based upon useful chemical analytical and microbiological tests," says Curt White of Aegis Environments.


Does the Application Matter?


Depending on the product's end-use, the marketing claims made, the antimicrobial's chemical and physical properties, and its mode of antimicrobial activity, the antimicrobial's application does matter.


Some antimicrobials can be applied in several ways, but other technologies are limited to one mode of application. A product designer's main priorities, whether for flexibility, durability, cost, compatibility with other finishes, spectrum of microbes to be fought, or high-performance, may influence the application, and the antimicrobial, chosen to protect that product. Application matters!


Originally published in AATCC News; June 2009 © AATCC


About the Author


The author is associated with AATCC.


Applied Technology: Applying Antimicrobials to Textiles By : Maria C. Thiry

Applied Technology: Applying Antimicrobials to Textiles
By : Maria C. Thiry

Source: AATCC


There are many options to weigh when considering which antimicrobial is best for a particular product. Application method is an important aspect to examine in more detail.


According to Damien Fruchart, textile engineer with Asix International Development Consultancy, there are three main options for applying an antimicrobial agent to textiles. Each has its own advantages and challenges.


The first option is treating the fabric through an "aqueous process" in the finishing line with the antimicrobial substance. The second is incorporating the antimicrobial into or onto the fiber itself. A third application method, according to Fruchart, is post-consumer, "an additive designed to be added to the laundering water each time the product is washed."


Applied to the Fabric


The benefit of topical antimicrobial treatment applied to the fabric during the finishing stage is that "Topical application is more versatile," says Jeff Trogolo, chief technology officer for antimicrobial supplier Agion. "It's later in the process and gives the retailer more flexibility about which fabric to choose." A topical antimicrobial finish is appropriate for any use that uses a relatively small amount of fabric, or one that mixes many different fiber types, Trogolo says.


Washfastness is key, says Hirotoshi Goto, professional engineer JP for fabric supplier Toray Industries. In Japan, the standard for wash durability is 50 washes at 80C for industrial laundering such as hospitals. For non-hygiene-critical applications such as home laundering, 20 washes at 40C is considered standard. Washfastness can be improved through the use of a highly durable resinous binder, which has better affinity with the agent and fiber and works like an adhesive, says Goto. "But this kind of resin is hydrophobic, and will give new problems," he says. Issues may include residual formaldehyde, or a fabric that is unable to absorb perspiration.


Goto says that a new method used by his company applies the antimicrobial as a fabric finish without a binder. Instead, the antimicrobial infiltrates into the synthetic fibers in a manner similar to a disperse dye. "This agent has especially high affinity with polyester fiber," says Goto.


Another challenge of using topical antimicrobial finishes, says antimicrobial consultant William D. Hanrahan, is that "each individual fiber and fiber blend has its own chemistry and its own way of being finished. You have to make sure that the antimicrobial doesn't interfere with any other finishes being applied to the fabric, and that the characteristics of the fabric-hand, water repellency, fire retardance-aren't changed."


Applied to the Fiber


Applying the antimicrobial directly into the fiber master batch during synthetic fiber formation is also popular. According to Hanrahan, adding the antimicrobial at the fiber stage narrows the field of antimicrobials that can be used because synthetic fibers are commonly extruded at high temperatures. This rules out most organic antimicrobials says Mark Wiencek of Milliken, because many are not thermally stable. "They may lose some of the active ingredients. Incorporation of antimicrobials into textile fibers during the spinning process (often via a master batch) is an application dominated by silver. This is because silver is thermo-stable," he says.


"Antimicrobial agents blended into the fiber can show superior washing durability, but take longer to work," says Goto. He also says that, since many of the fiber-application systems are metal-based antimicrobials, the color of the fiber can sometimes be affected.

Hanrahan says that another limitation of this application is that the retailer loses flexibility, because the antimicrobial is added far back into the supply chain. "It means you have to carry inventory. And the product may be marked up along the supply chain," he says. "This application tends to be more durable, but not as economical." According to Trogolo, this kind of application is best for end-uses that need large amounts of one kind of fiber, such as upholstery or uniforms.


Other Applications


Other ways of applying antimicrobials to textiles are less common. Noble Biomaterials' X-Static product is a "universal and permanent coating of silver on substrates from yarn to fabric," says the company's Chief Commercial Officer, Joel M. Furey. This system is "primarily intended where users need high levels of performance," says Furey. This means "high kill rates of bacteria and fungi with a fast kill action," he says.


Another product with a high kill rate is chlorine. According to Wiencek, n-halamine binders "have a unique way of dealing with antimicrobial treatments-they bind chlorine to the fabric, so that they can make claims that EPA-registered chlorine bleach can make." According to Fruchart, chlorine is "as good as any disinfectant. A 99.9% killing rate is reached within an hour, which is quicker than most other aqueous treatments." This is Fruchart's post-consumer after-treatment method.


The chlorine is used as an antimicrobial and is recharged onto the fabric by adding chlorine bleach to the laundry. A drawback to this system, says Wiencek, is that although this technology is intended for niches that require industrial laundering, not all industrial laundries use chlorine-based bleach.


Fruchart remarks that in a laminated product, "instead of treating the fabric, an antimicrobial agent is added in the adhesive. The active ingredient will radiate, thus creating an inhibition zone, while remaining resistant to laundering." Adhesive treatment makes it possible for laminated polyester fabric to maintain an antimicrobial activity despite prolonged washing cycles.


In a similar vein, Fruchart notes that "one technique, although not frequently used, consists of placing antimicrobial agents contingent in between two membranes. The membranes' permeability allows the controlled release of active ingredients, which migrate to the surface. This type of process is mainly....for products that do not get laundered, like mattress covers and separation curtains. With complementary methods, protection can last for several years."


A flexible technology like the Aegis SiQuat can be applied in or onto fibers, fabrics, or post-consumer laundry treatment, says Bob Montincello of Aegis Environments. "This versatility in application provides textile mills with options... [that] keep down costs and maximize performance," he says.


"The best application procedure for antimicrobial treatment will provide for mill qualification testing and good, solid SOPs, along with quality assurance procedures that are based upon useful chemical analytical and microbiological tests," says Curt White of Aegis Environments.


Does the Application Matter?


Depending on the product's end-use, the marketing claims made, the antimicrobial's chemical and physical properties, and its mode of antimicrobial activity, the antimicrobial's application does matter.


Some antimicrobials can be applied in several ways, but other technologies are limited to one mode of application. A product designer's main priorities, whether for flexibility, durability, cost, compatibility with other finishes, spectrum of microbes to be fought, or high-performance, may influence the application, and the antimicrobial, chosen to protect that product. Application matters!


Originally published in AATCC News; June 2009 © AATCC


About the Author


The author is associated with AATCC.


A Comparative Study of Different Stone and Bio-stone Washing of Denim

Abstract


Denim washing is known as one of the finishing treatment that has vast usage because of creating special appearance and updating clothes. Washing jean clothes are being developed and technology of denim washing is the main part of clothes Industry. In current study, comparison of different washing methods is considered. Different methods of denim washing including the use of pumice stone, neutral and acid cellulases and also combination of pumice stone and cellulases. The change of color of resulting samples are compared by the reflecting colorimeter of inside garment, outside garment and pocket material after doing experiments. Tensile of samples is measured, XRD spectrum and crystalline degree also monitored. Furthermore, the surfaces of fibers in treated samples have been observed by SEM images. The result of experiments shows that neutral cellulases produced a fabric with higher lightness and increasing of enzyme adding to back staining. Denim treatment with 100% o.w.f pumice stone alone wasn't effective. However, combination of 100% pumice stone with cellulases showed a good washing effect.


Keywords: Denim, Stone washing, Back-staining, Lightness, Cellulases, Pumice stone



Read Full Article



About the Authors


The authors are associated with Department of Textile Engineering, Amirkabir University of Technology and Postgraduate Department, South Branch of Tehran Azad University, Tehran, Iran, respectively.

A Comparative Study of Different Stone and Bio-stone Washing of Denim

Abstract


Denim washing is known as one of the finishing treatment that has vast usage because of creating special appearance and updating clothes. Washing jean clothes are being developed and technology of denim washing is the main part of clothes Industry. In current study, comparison of different washing methods is considered. Different methods of denim washing including the use of pumice stone, neutral and acid cellulases and also combination of pumice stone and cellulases. The change of color of resulting samples are compared by the reflecting colorimeter of inside garment, outside garment and pocket material after doing experiments. Tensile of samples is measured, XRD spectrum and crystalline degree also monitored. Furthermore, the surfaces of fibers in treated samples have been observed by SEM images. The result of experiments shows that neutral cellulases produced a fabric with higher lightness and increasing of enzyme adding to back staining. Denim treatment with 100% o.w.f pumice stone alone wasn't effective. However, combination of 100% pumice stone with cellulases showed a good washing effect.


Keywords: Denim, Stone washing, Back-staining, Lightness, Cellulases, Pumice stone



Read Full Article



About the Authors


The authors are associated with Department of Textile Engineering, Amirkabir University of Technology and Postgraduate Department, South Branch of Tehran Azad University, Tehran, Iran, respectively.

A Comparative Study of Different Stone and Bio-stone Washing of Denim

Abstract


Denim washing is known as one of the finishing treatment that has vast usage because of creating special appearance and updating clothes. Washing jean clothes are being developed and technology of denim washing is the main part of clothes Industry. In current study, comparison of different washing methods is considered. Different methods of denim washing including the use of pumice stone, neutral and acid cellulases and also combination of pumice stone and cellulases. The change of color of resulting samples are compared by the reflecting colorimeter of inside garment, outside garment and pocket material after doing experiments. Tensile of samples is measured, XRD spectrum and crystalline degree also monitored. Furthermore, the surfaces of fibers in treated samples have been observed by SEM images. The result of experiments shows that neutral cellulases produced a fabric with higher lightness and increasing of enzyme adding to back staining. Denim treatment with 100% o.w.f pumice stone alone wasn't effective. However, combination of 100% pumice stone with cellulases showed a good washing effect.


Keywords: Denim, Stone washing, Back-staining, Lightness, Cellulases, Pumice stone



Read Full Article



About the Authors


The authors are associated with Department of Textile Engineering, Amirkabir University of Technology and Postgraduate Department, South Branch of Tehran Azad University, Tehran, Iran, respectively.

Cotton Fabric Printing with Reactive Dye using Guar Gum

Abstract


Water and soil repellency has been one of the major targets for fiber and textile scientists and manufacturers for centuries. Nano science is employed for this type of problems. From the nano science self cleaning is the wonderful technology for dirt-free with other functional finishes. So, through this paper we deals with various mechanisms of self-cleaning and the coatings, manufacturing methods, and also various functional finishes like antimicrobial; UV ray finishes which can be imparted with the major advantages than the other conventional finishes and application area of this technique. Connection to this limitation, problems with this technique and recommendations for the purpose of bringing out new ideas which is incorporated in the self cleaning garments.


Introduction


Nature has already developed an elegant approach that combines chemistry and physics to create super repellant surfaces as well as self cleaning surfaces. "Lotus leaves" is the best example of self cleaning surfaces. The technology of self-cleaning coatings has developed rapidly in recent years. As a commercial product, their potential is huge and their market truly global. Because of the wide range of possible applications. The concept of self cleaning textiles is based on the lotus plant whose leaves are well-known for their ability to self-clean by repelling water and dirt. Now day's peoples are very busy in their work that they do not have time for clean their daily wear cloths also people who are working in kitchens having headache to wash their garments. Also military peoples have to survive in such drastic condition that they cannot wash their cloths. Nano technology provides a new concept self cleaning textiles which gives self cleaning as well as fresh cloths every day, this not only technically benefited but techno economically also benefited. The field of self-cleaning coatings is divided into two categories: hydrophobic and hydrophilic. These two types of coating both clean themselves through the action of water, the former by rolling droplets and the latter by sheeting water that carries away dirt. Hydrophilic coatings, however, have an additional property: they can chemically break down adsorbed dirt in sunlight.


Read Full Report


About the Author


The author is associated with PSG College of Technology.

Cotton Fabric Printing with Reactive Dye using Guar Gum

Abstract


Water and soil repellency has been one of the major targets for fiber and textile scientists and manufacturers for centuries. Nano science is employed for this type of problems. From the nano science self cleaning is the wonderful technology for dirt-free with other functional finishes. So, through this paper we deals with various mechanisms of self-cleaning and the coatings, manufacturing methods, and also various functional finishes like antimicrobial; UV ray finishes which can be imparted with the major advantages than the other conventional finishes and application area of this technique. Connection to this limitation, problems with this technique and recommendations for the purpose of bringing out new ideas which is incorporated in the self cleaning garments.


Introduction


Nature has already developed an elegant approach that combines chemistry and physics to create super repellant surfaces as well as self cleaning surfaces. "Lotus leaves" is the best example of self cleaning surfaces. The technology of self-cleaning coatings has developed rapidly in recent years. As a commercial product, their potential is huge and their market truly global. Because of the wide range of possible applications. The concept of self cleaning textiles is based on the lotus plant whose leaves are well-known for their ability to self-clean by repelling water and dirt. Now day's peoples are very busy in their work that they do not have time for clean their daily wear cloths also people who are working in kitchens having headache to wash their garments. Also military peoples have to survive in such drastic condition that they cannot wash their cloths. Nano technology provides a new concept self cleaning textiles which gives self cleaning as well as fresh cloths every day, this not only technically benefited but techno economically also benefited. The field of self-cleaning coatings is divided into two categories: hydrophobic and hydrophilic. These two types of coating both clean themselves through the action of water, the former by rolling droplets and the latter by sheeting water that carries away dirt. Hydrophilic coatings, however, have an additional property: they can chemically break down adsorbed dirt in sunlight.


Read Full Report


About the Author


The author is associated with PSG College of Technology.

Cotton Fabric Printing with Reactive Dye using Guar Gum

Abstract


Water and soil repellency has been one of the major targets for fiber and textile scientists and manufacturers for centuries. Nano science is employed for this type of problems. From the nano science self cleaning is the wonderful technology for dirt-free with other functional finishes. So, through this paper we deals with various mechanisms of self-cleaning and the coatings, manufacturing methods, and also various functional finishes like antimicrobial; UV ray finishes which can be imparted with the major advantages than the other conventional finishes and application area of this technique. Connection to this limitation, problems with this technique and recommendations for the purpose of bringing out new ideas which is incorporated in the self cleaning garments.


Introduction


Nature has already developed an elegant approach that combines chemistry and physics to create super repellant surfaces as well as self cleaning surfaces. "Lotus leaves" is the best example of self cleaning surfaces. The technology of self-cleaning coatings has developed rapidly in recent years. As a commercial product, their potential is huge and their market truly global. Because of the wide range of possible applications. The concept of self cleaning textiles is based on the lotus plant whose leaves are well-known for their ability to self-clean by repelling water and dirt. Now day's peoples are very busy in their work that they do not have time for clean their daily wear cloths also people who are working in kitchens having headache to wash their garments. Also military peoples have to survive in such drastic condition that they cannot wash their cloths. Nano technology provides a new concept self cleaning textiles which gives self cleaning as well as fresh cloths every day, this not only technically benefited but techno economically also benefited. The field of self-cleaning coatings is divided into two categories: hydrophobic and hydrophilic. These two types of coating both clean themselves through the action of water, the former by rolling droplets and the latter by sheeting water that carries away dirt. Hydrophilic coatings, however, have an additional property: they can chemically break down adsorbed dirt in sunlight.


Read Full Report


About the Author


The author is associated with PSG College of Technology.

Tuesday, September 8, 2009

Indian Textile Industry

Indian Textile Industry