(Industry News)











Capacitive Fabrics Are Creating Batteries You Can Wear

As wearable devices become more and more numerous, they are going to need convenient new power sources so we don’t have dozens of chargers plugged in around our homes. The efforts toward pursuing a solution to this problem generally fall into two areas: means of generating, or harvesting energy on the go, and a way of storing that energy that goes beyond what we think of as batteries today.

A team at Drexel University has developed a "capacitive yarn" essentially tranforms fabric into an energy storage device by embedding functional materials into textile fibers at the molecular level. This was made possible through a process called natural fiber welding (NFW), which was developed by Paul C. Trulove at the US Naval Academy, who collaborated on the project.   more

Nanotube Fibers May Restore Electrical Health To Damaged Hearts And Disrupted Brain Communication
The Texas Heart Institute (THI) and Rice University — both Houston-based, have jointly received a prestigious American Heart Association grant. The three-year, $750,000 grant will support THI and Rice researchers in a study and test of soft, flexible fibers made of carbon nanotubes. The scientists say these fibers’ ability to bridge electrical gaps in tissue is a groundbreaking discovery that offers new hope to millions of people affected by cardiac arrhythmias — that is, any irregularity in the heart’s natural rhythms.  Read more     also here  

Super-stretchy fibers made by wrapping carbon nanotubes around rubber 

(Nanowerk News) An international research team based at The University of Texas at Dallas has made electrically conducting fibers that can be reversibly stretched to over 14 times their initial length and whose electrical conductivity increases 200-fold when stretched.   Read more.      Be sure to watch the video, and more here.   .

Conductive Composites
Nate Hansen and George Hansen owners and founders of Conductive Composites gave the group a tour of their manufacturing line and described how they manufacture shielded wire and other things. They reinforce plastic with carbon fiber which increases the strength. Conductive Composites makes materials that shield digital electronics from outside electronic signals. Conductive Composites is currently in the process of moving a manufacturing line from the Green River plant to the Cleveland plant.  The article

Researchers Fabricate Electrically Conductive Nanocomposite Laminate with Less Graphene Loading
Researchers at the Department of Energy’s Oak Ridge National Laboratory (ORNL) have developed a new method for commercial-scale fabrication of graphene. This could lead to significant advances in flexible electronics, and could possibly change the manner in which graphene is viewed and utilized.  The story

Tiny wires could provide a big energy boost
Yarns of niobium nanowire can make supercapacitors to provide a surge of energy when it’s needed.  By David L. Chandler | MIT News Office  more

Fibers Made by Transforming Materials
This is the kind of thing that excites some of our members and keeps us going--ed.  New approach could enable low-cost silicon devices in fibers that could be made into fabrics.  more

New technology using silver may hold key to electronics advances
Engineers at Oregon State University have invented a way to fabricate silver, a highly conductive metal, for printed electronics that are produced at room temperature.  read more

Google Wants You to Control Your Gadgets with Finger Gestures, Conductive Clothing
New Google technology addresses the tiny screen problem by letting you control wearables with tiny gestures, or by touching your clothes.   Read it here

Conductive Fiber Used for Google Pocket Mouse
The Council is prod to share a major use of conductive fiber:  http://www.pcworld.com/article/2928814/hands-on-googles-project-jacquard-plans-to-turn-your-jacket-into-a-trackpad.html

Unlocking the creation of wearable electronic devices
An international team of scientists, including Prof. Monica Craciun from the Univ. of Exeter, have pioneered a new technique to embed transparent, flexible graphene electrodes into fibers commonly associated with the textile industry.  The discovery could revolutionize the creation of wearable electronic devices, such as clothing containing computers, phones and MP3 players, which are lightweight, durable and easily transportable.  more

Top 9 Things You Didn’t Know about Carbon Fiber, Source: DOE
The next generation of carbon fiber composites could reduce passenger car weight by 50 percent and improve fuel efficiency by about 35 percent without compromising performance or safety — an advancement that would save more than $5,000 in fuel over the life of the car at today’s gasoline prices.   Read more

ORNL demonstrates first large-scale graphene fabrication
OAK RIDGE, Tenn., May 14, 2015 -- One of the barriers to using graphene at a commercial scale could be overcome using a method demonstrated by researchers at the Department of Energy's Oak Ridge National Laboratory.
Graphene, a material stronger and stiffer than carbon fiber, has enormous commercial potential but has been impractical to employ on a large scale, with researchers limited to using small flakes of the material.  more

Microcombing Could Make Carbon Nanotube Films Stronger And More Conductive
Microcombing could lead to carbon nanotube (CNT) films that are stronger and more conductive than current manufacturing techniques allow. This technology aligns nanotubes into more durable sheets that could hasten the day when they are widely used in aerospace as well as the development of new electronic devices. read more

Rice University lab extends meniscus-mask process to make sub-10 nanometer paths

Water is the key component in a Rice University process to reliably create patterns of metallic and semiconducting wires less than 10 nanometers wide.

The technique by the Rice lab of chemist James Tour builds upon its discovery that the meniscus – the curvy surface of water at its edge – can be an effective mask to make nanowires.     - See more

President Obama Launches Competition for New Textiles-Focused Manufacturing Innovation Institute; New White House Supply Chain Innovation Initiative; and Funding to Support Small Manufacturers
In Cleveland, Ohio, the President launches ninth manufacturing hub competition and announces measures to strengthen the small manufacturers that power America’s supply chains.

WASHINGTON, DC  – Today the President is announcing nearly $500 million in public-private investment to strengthen American manufacturing by investing in cutting-edge technologies through a new, textiles-focused manufacturing institute competition led by the Department of Defense, and by sharpening the capabilities of small manufacturers through Manufacturing Extension Partnership competitions in twelve states. The White House, as detailed in a new report, is also launching a Supply Chain Innovation Initiative focused on building public-private partnerships to strengthen the small U.S. manufacturers that anchor the nation’s supply chains.

The President’s Fiscal Year 2016 Budget, to create jobs and strengthen America’s leadership in advanced manufacturing technology, provides the resources to double the number of manufacturing innovation institutes nationwide to 16 by the end of 2016 and fulfills the President’s goal of building a network of up to 45 institutes over the decade. In contrast, the House Republican Budget released yesterday entrenches the harmful sequester levels of funding and proposes to eliminate the Manufacturing Extension Partnership, putting at risk critical investments in advanced manufacturing, workforce development and training, and innovation proposed in the President’s Budget.   more     ALSO more information here

Energy Generating Cloth Invented: Wearable Triboelectric Nanogeneration
Scientists have successfully tested energy-generating cloth that could be used to charge wearable technologies such as smart watches and personal electronics - meaning you could soon be charging your mobile phone as you walk.  read more

Explore the Radical New Enabling Technologies Behind Wearable Technology. 
Europe's biggest wearable technology event exploring the upcoming technologies and their market drivers.
Wearable Technology Europe - 28-29 April 2015 | Berlin, Germany 
If you seek to understand the driving trends, what is needed next and the state-of-the art technology developments, take a look at the event at www.IDTechEx.com/wteurope. Spaces are limited to ensure balance between fashion brands and suppliers.

Cornell student designs maternity clothes that would monitor the mother's health
THACA, N.Y -- Mothers-to-be spend a lot of time wondering about their health and the health of their baby.
A line of maternity clothing designed by a Cornell University student would provide real-time data to pregnant women and their doctors.
Blake Uretsky, a Pittsburgh-area senior at Cornell who is studying fiber technology, won a $30,000 scholarship from fashion designer Geoffrey Beene for her designs, according to the Pittsburgh Post-Gazette. more

New Fibers Could Lead to a More ‘Natural’ Neuroprosthesis

Researchers at Massachusetts Institute of Technology have created a new complex multimodal fiber system that may be able to transmit drugs, light and electrical signals to the brain, according to a paper published in Nature Biotechnology.  Polina Anikeeva, PhD, professor in the Department of Materials Science and Engineering stated the fibers could ultimately be used for precision mapping of responses of different regions of the brain or spinal cord, resulting in a new type of neuroprosthesis. more


Integral, Conductive Composites developing nickel-plated CF capacity
Integral Technologies Inc. and longtime supplier Conductive Composites Co. LLC have signed a memorandum of understanding for dedicated nickel-plated carbon fiber manufacturing capability.
Integral will supply equipment, and Conductive Composites will start a separate manufacturing line in a new facility in a to-be-identified location for production of conductive fibers that Integral’s wholly owned subsidiary ElectriPlast Corp. proposes using in potentially metal-replacing polymer and composite products for electromagnetic shielding applications.  source

Wearable technology: a materials goldmine

By Dr Peter Harrop, Chairman, IDTechEx www.IDTechEx.com

In 2025 over $25 billion will be spent on formulations and intermediate materials for wearable technology, as forecast by analysts IDTechEx in the brand new report "Wearable Technology Materials 2015-2025". Companies at this early part of the value chain will enjoy a multiplier over the coming decade. They will participate in a rapidly growing market and they will take a greater percentage of it as some other parts of the value chain are eliminated. This is not because e-fibers will be used to create e-textiles from bandages to apparel. That is a longer term prospect. Instead, it is a matter of making today's devices differently. They need to be made smaller, flexible, more comfortable, often invisibly hidden in or under clothing or transparent. Other items in the wish list will sometimes include being implantable, disposable and a frequent request is that they should never be short of electricity. Indeed, power running out after a few hours, a common inadequacy today, can be life threatening with exoskeletons and medical e-patches and dangerous with planned glucose- indicating contact lenses and wristbands for severe diabetics.

In most cases, the only way forward is to abandon the 100 year old "components in a box" approach of almost all manufacturers of wearable technology today. Instead, we shall use structural electronics where smart materials are key. This will be a cornucopia for manufacturers of electronic and electrically functional materials that can be made into structures using those increasingly crucial intermediate materials.

However, this industry needs to prioritise and de-risk its future investments and analysts IDTechEx has now provided the tools to do this. Its report, "Wearable Technology Materials 2015-2025" finds large opportunities for organics, inorganics and composites. It tackles prioritisation in different ways. First it looks at which materials are low risk because they are useful in many different ways. For example, polyvinylidene difluoride is electrically a gymnast of chemicals. It and its derivatives can be electret microphone, ferroelectric memory, piezoelectric energy harvester and much more besides.

Then IDTechEx has looked at the prevalence of different formulations that are being used in planned integrated devices for the future. For example, there is great interest in lithium, indium and titanium salts across a broad sweep of functionality. III-V compounds feature strongly in next generation products such as flexible displays and photovoltaics for low light conditions. Carbon allotropes are very broadly researched for wearables and allied markets but there is not much on C60 buckyballs. Graphene is of more interest for future batteries, supercapacitors, flexible displays and so on.

Most of the world's leading companies making primary and intermediate materials will be using IDTechEx prioritisation tools to capture a major share of this large new market. There are also many niche opportunities for smaller players such as those specialising in the chemistry of tungsten or tantalum, where many new uses are emerging. Similarly, although fluorocarbons have large potential, there are plenty of niche opportunities for other organics and some very big ones. IDTechEx counsels that many new morphologies and formats are needed from electronic printing inks to metal feedstock for the new higher speed, lower cost 3D printing. These challenges with the new formulations identified reduce competition and open up opportunities for premium pricing.

Dr Peter Harrop,   Chairman, IDTechEx   +44 (0)1223 812300   p.harrop@IDTechEx.com

Tiny Clothing Wires to Ward Off the Big Chill
Everyone is talking about it.  One of the big reasons we exist (editor) 
Nanotechnology specialists promise clothing that keeps more heat in.  WSJ  and ACS

Anisotropic conductive films based on highly aligned polyimide fibers containing hybrid materials of graphene nanoribbons and carbon nanotubes
Electrospun polyimide-graphene nanoribbons/carbon nanotubes fiber membranes exhibit anisotropic electrical conductivity of 6 orders of magnitude in parallel and perpendicular directions along the fiber alignment.    citation

Rice University Again:  Researchers' acid-free approach leads to strong conductive carbon threads
The single-walled carbon nanotubes in new fibers created at Rice line up like a fistful of uncooked spaghetti through a process designed by chemist Angel Martí and his colleagues.
The tricky bit, according to Martí, whose lab reported its results this month in the journal ACS Nano, is keeping the densely packed nanotubes apart before they're drawn together into a fiber.
Left to their own devices, carbon nanotubes form clumps that are perfectly wrong for turning into the kind of strong, conductive fibers needed for projects ranging from nanoscale electronics to macro-scale power grids.    Read more

 New Report on State of the Industry: E-Textiles: Electronic Textiles 2014-2024
Compared to today's wearable electronics, for example, there is less opportunity to use true e-textiles for infotainment but more for fashion. However, both involve huge opportunities in the merging healthcare, medical, fitness and wellness sector. Winners will not be those currently dominating mobile phones and similar devices who are taking leadership in smart glasses, wristbands, headware etc., but the many start-ups, fashion houses, medical electronics companies and so on. Europe will be a strong contender with its unique transnational development programs that are exceptionally comprehensive along the emerging value chain. Timelines and approximate market size are given and development work appraised. There is also a look at smart textiles that may transistion to being true e-textiles.     Full information and ordering into here.

Integral Announces New Conductive Plastics Materials
PRNewswire/ -- Integral Technologies, Inc. (OTC-BB: ITKG) ("Integral"), an emerging light weighting leader and its wholly owned subsidiary, ElectriPlast Corp, announced the exciting development of two new materials.  These materials keep Integral well in front of the industry performance curve. The focus of these new materials is the high performance shielding market and applications that will utilize ElectriPlast as a conductor. These new products will be protected by existing patents, with additional opportunities to add to Integral's IP portfolio from innovations achieved during product development. 
The first material is a lightweight, high strength conductive material with an inner core of un-plated 12K and 24K carbon fiber, the second material is a highly conductive material using copper plated carbon fiber ("CuC").   Both materials can be formulated with most base resins, including ABS, PA66, PBT, PC, and PP. Technical information will be made available on the new materials in the next few weeks, at which time orders will be accepted for them.   More 

Boeing : Patent Application Titled "Conductive Fiber Reinforced Polymer Composition" Published Online
Reporters obtained the following quote from the background information supplied by the inventors: "The use of fiber reinforced plastic for various applications is well known. Due to their strength and lightweight, such composites are common in the aerospace...(more)

The structure of three-dimensional electrically conductive fabric as claimed in claim 1, wherein the electrically conductive yarns are one of metal fiber ...(more)  

Evaluation of Advanced Conductive Nickel Materials for Strain Sensing in Carbon Fiber Reinforced Polymers
BYU citation here.      See the report here.

Development of Polyester and Polyamide Conductive Fiber
A report in Journal of Materials (cite)

Electroconductive Thread
On a pound-per-pound basis, carbon nanotube-based fibers invented at Rice University have greater capacity to carry electrical current than copper cables of the same mass, according to new research. While individual nanotubes are capable of transmitting nearly 1,000 times more current than copper, the same tubes coalesced into a fiber using other technologies fail long before reaching that capacity.  read the story  (We are waiting for commercial quantities could be available., and we know some people are ready to use it.--Editor)

New Graphene Nanoyarn Is Conductive And As Strong As Kevlar

Graphene, a versatile and promising nanomaterial, has so far proven difficult for scientists to manipulate due to the fact that it is only one atom thick. According to the American Chemical Society, graphene has an extremely high strength to weight ratio and is 100 times stronger than steel. Moreover, it is highly conductive and transparent, making it attractive for use in solar panels, transmission lines and various other applications.  more    (Interesting, but we appear to still have quite a way to go before commercial quantities could be available.--Editor)

Researchers Devise New, Stretchable Antenna For Wearable Health Monitoring
Researchers from North Carolina State University have developed a new, stretchable antenna that can be incorporated into wearable technologies, such as health monitoring devices.     Full report here.

Tariq Bashir, PhD of Sweden publishes Dissertation Conjugated Polymer based Conductive Fibers for Smart Textile Applications.
Useful overview of the field.  Read the abstract here.;   full report here.

Lighter, Stronger EMI Shielding--Future of E-Textiles

Nice article about the value of metalized  Micro-Coax's ARACON aramid fibers in reducing aircraft weight.  Every pound saved translates into big money in fuel saved or enhanced performance.  Read the story here.
There is also a report about e-testiles for the next decade:  E-Textiles: Electronic Textiles 2014-2024 Electronic and electric smart fibers, e-fibers, fibertronics, smart textiles, soft circuits By Dr Peter Harrop and Raghu Das Brand new for Q1 2014.  Read more.   The report costs a bit of money, but the summary is also worthwhile.

Micro-Coax Acquired

CHARLOTTE, N.C.--(BUSINESS WIRE)-- Carlisle Companies Incorporated (NYSE:CSL) today announced the acquisition of Micro-Coax, Inc., a leading global supplier of high-performance, high frequency coaxial wire and cable, and cable assemblies for mission-critical RF/microwave applications for defense, satellite, test and measurement and other industrial customers.

With annual sales of approximately $45 million and 235 employees, Micro-Coax has manufacturing facilities in Pottstown, PA and a joint venture operation in Blackburn, UK. The company has been in business for over 50 years and is a supplier to the world’s leading defense, aerospace and electronics companies. Micro-Coax designs, manufactures and sells customized, high-reliability wire and cable for signal transmission on defense, space and satellite platforms and in high-end industrial equipment. The company’s well-known brands include UTiFLEX® flexible microwave cable assemblies, UTiFORM® hand formable cable, M-FLEX® cable assemblies and ARACON® metal clad fiber.  more

Company Makes First Known SemiConductor Thread

MINATEC Entreprises – BHT of France France: makes a conductive yarn,  PRIMO1D, with embedded LED, the first semiconductor yarn! 

Researchers Devise New, Stretchable Antenna for Wearable Health Monitoring

Researchers from North Carolina State University have developed a new, stretchable antenna that can be incorporated into wearable technologies, such as health monitoring devices.  Read the whole story here. 

Conductive Fibers Appear in Nature?
Our staff just ran into something interesting from the University of Oxford which I thought I might share with you. Link.     It appears that there is an analog of our metal-clad fibers which occurs commonly in nature-spider webs!  Apparently spiders coat the surface of their silk webs with an electrically-conductive glue which actually causes the web to "reach out to grab all charged particles, from pollen and pollutants to flying insects."  Oddly enough, the web is attracted to both positively and negatively charged objects.

Detecting Chemicals, Measuring Strain with a Pencil and Paper
An interesting and exciting article, a new way of looking at things.  It worked for films (i.e. paper).  Wwhat are the implications for conductive fibers?  Read the article from Northwestern's McCormick School here.

Not-weak knots bolster carbon fiber: New material created with graphene oxide flakes

This is an interesting phenomena-normally, knots are where a fiber will break.  However they are not really advancing the strength of the base fiber with this approach.  However, they are doing some really creative work.  It would be an exciting place for a researcher to be right now.   Read the story here.

Bullet Proof Cable Assemblies:  Executive interview with Chris Kneizys, president of Micro-Coax
see interview with Micro-Wave Journal here

UNL team's discovery yields supertough, strong nanofibers

University of Nebraska-Lincoln materials engineers have developed a structural nanofiber that is both strong and tough, a discovery that could transform everything from airplanes and bridges to body armor and bicycles. Their findings are featured on the cover of this week's April issue of the American Chemical Society's journal, ACS Nano.  link

Stretchy Gold Electronics Could Someday Live Inside Your Brain

What looks like a shiny piece of gold foil is actually a new stretchy conductive material that could one day be fashioned into electrode implants for the brain or pacemakers for the heart. Crafted from gold nanoparticles and an elastic polymer, the material retains its conductivity even when stretched to four times its original length.“It looks like elastic gold,” said Nicholas Kotov, a chemical engineer at the University of Michigan. “But we can stretch it just like a rubber band.” When it stretches, it retains all the properties of a metal, including the ability to transport electrons.

Normally, stretching a circuit disrupts the interatomic connections that keep electrons flowing from one end to the other. Most existing stretchable electronics overcome this difficulty by using accordion- or spring-like folding wires that can expand and contract. But in the new material, no folds or convolutions are needed.   more-link

Tough and highly conductive carbon nanotube fibre

RESEARCHERS at Rice University have, after ten years, developed a carbon nanotube fibre which looks and acts like a textile thread but conducts electricity and heat like a metal wire.  The researchers have also come up with an industrially-scalable process for making the carbon nanotube (CNT) fibres.  Read the whole story in Electronics News

Iran Produces Electromagnetic Adsorbent Cellulose Nanofibers with Antibacterial, Anti-flame Properties
TEHRAN (FNA)- Iranian researchers at Islamic Azad University, the Southern Tehran Branch, succeeded in the production of fibers with high thermal resistance, antibacterial and anti-flame properties that are also able to absorb electromagnetic waves.

Global Nanocomposites Industry Report Available
PRNewswire/ -- Reportlinker.com announces that a new market research report is available in its catalogue:

Read more here.

Iranian researcher engages in project to make highly conductive plastic fibers
Iranian researcher Vina Faramarzi jointly with other scientists from CNRS and the University of Strasbourg succeeded in making highly conductive plastic fibers that are only several nanometers thick. The nanowires, are "self-assemble" when triggered by a flash of light.     Source: ISNA  read more

Spider Silk Weaves New Path for Electronics     Adding gold or nanotubes to spider silk creates microscopic wires
By Neil Savage  /  May 2012    Scientists chasing the secrets of spider silk have spent years focusing on the material’s remarkable mechanical properties.  read more

Another area which really fits well in the CFMC is the who arena of Buckypapers.  This first paper makes a very important point; "Relatively small concentrations of nanotubes can change a normally insulating polymer film to a transparent electrical conductor."  This has major market implications since  ITO (Indium/tin oxide) is a major component in touch-screen technology.  Needless to say, it has implications to conducting fibers, EMI shielding, etc.  The second paper is a bit of a refinement on the Buckypaper concept-a means of controlling pore size.  The team grew single crystals of polymers around the nanotubes which creates natural "spacers" to maintain a controlled distance between nanotubes.
Buckypapers Clarify Electrical, Optical Behavior Of Nanotubes

'Shish Kebab' Structure Provides Improved Form of 'Buckypaper'

New Process Converts Polyethylene Into Carbon Fiber  You might want to take a look at some of the fiber configurations in the photo:    http://www.sciencedaily.com/releases/2012/03/120327152903.htm

Smart Textiles And Wearable Technologies Market Study By Textiles Intelligence Now Available At MarketPublishers.com
LONDON--(BUSINESS WIRE)--Smart textiles are textiles which can sense and react to an environment or stimulus -- including heat or light -- or have been treated to provide added functionality, such as stain resistance or odour control. These products have the potential to change the way people dress, communicate, respond to emergencies, manage their health and even entertain themselves.  More

Heated Fabric Using Carbon Nanotube Coated Fibers
Kuraray Living has developed a full-face heating fabric using CNTEC, a carbon nanotube coated electro conductive fiber. This fiber was co-developed with Hokkaido University and others.  read more

Electronic Cotton--Cotton Transistors
Now--cotton transistors!   Circuits could be woven from conductive and semiconducting natural fibers....  read more

Conductive Fiber Medical Application
See this pre-publication article about a new device that utilizes the conductive fiber technology to deliver the thermal ablation.  click here.  (Dr. Lobodzinski is the scientific advisor to our CFMC)

Conductive Kevlar Fibers | Flintbox
Researchers at Rice University have coated Kevlar fibers with electrically conductive carbon materials using a layer-by-layer spray coating method. ...  more
Carbon Nanotube and Graphene Nanoribbon-Coated Conductive ...
ABSTRACT Conductive carbon materials-coated Kevlar fibers were fabricated through layer- .... fibers to make other lightweight, tough and conductive fibers. ... more   also at
Conductive carbon materials-coated Kevlar fibers were fabricated through layer- by-layer spray coating. Polyurethane was used as the interlayer between the ... more

E-King Cotton?
Conductive Cotton: Scientists Fashioning Electronic Future for ...   Newswise — ITHACA, NY — The latest breakthrough in cotton fiber research has ... The next layers were either conductive or semiconductive coatings; ...
Cotton the sci-fi fabric of the future     Hinestroza, associate professor of fiber science, was part of an ... of gold nanoparticles along with semiconductive and conductive polymers were used to ...

Transistors are made from natural cotton fibers   This organic electrochemical transistor was made with cotton fibers. The gate, drain and source in the device are made from cotton threads with conductive ...

Transistors made out of cotton may lead to high-tech fashion    By coating the cotton with a layer of gold nanoparticles, and then applying conductive or semiconductive coating to the fiber, Hinestroza found that “the ...

Nanotube Cables Hit a Milestone: As Good as Copper
Researchers achieve a goal they've been after since the 1980s—the advance could make cars and airplanes lighter, and renewable energy more practical. more
but also cosnider this:
NIST Uncovers Reliability Issues for Carbon Nanotubes in Future Electronics    Read the story.

Iran inaugurates first carbon fiber production line   TEHRAN - Iran has inaugurated the first production line for carbon fiber at ... and high conductive strength and chemical tolerance are the features of the ... (more)
Smart forvision at the 2011 International Motor Show Offers an eMercedesBenz     Solar Cells, carbon-fiber-reinforced epoxy resin, an infrared-reflective heat ... This is why “e-textiles” – thin fabrics with custom-tailored conductive ... (more)

Improved electrical conductivity in polymeric composites
(Nanowerk News) Physicists at the University of Luxembourg have developed a new method to improve the electrical conductivity of polymeric composites. link

Ions Control Shape Of Nanofibers Grown On Clear Substrate
Researchers from North Carolina State University, the Oak Ridge National Laboratory and CFD Research Corporation have found a new way to develop straight carbon nanofibers on a transparent substrate. Growing such nanofiber coatings is important for use in novel biomedical research tools, solar cells, water repellent coatings and others. The technique utilizes a charged chromium grid, and relies on ions to ensure the nanofibers are straight, rather than curling - which limits their utility. more

Coating Boosts Nanowire Efficiency and Sensitivity: Promise for Photodetectors and Solar Cells
ScienceDaily; By applying a coating to individual silicon nanowires, researchers at Harvard and Berkeley have significantly improved the materials' efficiency and sensitivity...link. Also see.

China Reports: New material industry expected to grow 20% in '11
Last Updated(Beijing Time):2011-07-14 13:10 By Liu Jin
We may find new materials nearly everywhere, such as our clothes, tableware, vehicles, houses and workplaces; from many important projects, such as large airplane, high-speed railway, new-energy autos etc. to many important industries, such as tri-networks integration (telecom network, broadcast network and computer communication network), Internet of Things and energy saving and environmental protection, all of them require the breakthrough on and application of a series of new material technology. Link

An Advance Toward Ultra-Portable Electronic Devices
Chemical Wiring and Soldering toward All-Molecule Electronic Circuitry"         Journal of the American Chemical Society
Scientists are reporting a key advance toward the long-awaited era of "single-molecule electronics," when common electronic circuits in computers, smart phones, audio players, and other devices may shrink to the size of a grain of sand. The breakthrough is a method for creating and attaching the tiny wires that will connect molecular components, reports a new study in the Journal of the American Chemical Society.
Yuji Okawa and colleagues write that the "key to single-molecule electronics is connecting functional molecules to each other using conductive nanowires. This involves two issues: how to create conductive nanowires at designated positions, and how to ensure chemical bonding between the nanowires and functional molecules." That challenge has stymied many researchers, who have struggled to produce wires small enough to use in molecular circuits.
The scientists now demonstrate a method that uses the tip of a scanning tunneling microscope to jump-start the formation of a molecule chain. The chain or "wire" spontaneously chemically bonds with other molecular components in the circuit under construction, a process that Okawa and colleagues dub "chemical soldering." The wiring method can be used to connect molecular switches, memory bits, and transistors. The scientists say their technique "will enable us to develop cheaper, higher-performance, and more ecological alternatives to conventional silicon-based devices."
The authors acknowledge funding from the Japan Society for the Promotion of Science.      SOURCE: American Chemical Society link

Vectran Used as Base for New Conductive Fiber
Named , LiberatorTM, Syscom states this fiber have advantages over conventional conductive metal wires in flexibility, weight savings, mechanical strength, durability and tailored electrical conductivity. link

Applying Conductive Nanocoatings to Textiles
ScienceDaily (June 6, 2011) — Imagine plugging a USB port into a sheet of paper, and turning it into a tablet computer. It might be a stretch, but ideas like this have researchers at North Carolina State University examining the use of conductive nanocoatings on simple textiles -- like woven cotton or even a sheet of paper. link See also: link and link

Engineers Develop Non-Acoustical Sensor to Improve Battlefield Communication
While not new, this might be improved with our members' conductive fibers. PDF link.

High-Tech Textiles Protect From Sources of Electromagnetic and Termal Radiation.
Please see linked news release from Hohenstein Institute in Bönnigheim

MIT Finds New Way to Control Conductivity: Reversible Control of Electrical and Thermal Properties Could Find Uses in Storage Systems
"The process works because when the liquid freezes, the pressure of its forming crystal structure pushes the floating particles into closer contact, increasing their electrical and thermal conductance. When it melts, that pressure is relieved and the conductivity goes down. In their experiments, the researchers used a suspension that contained just 0.2 percent graphite flakes by volume. Such suspensions are remarkably stable: Particles remain suspended indefinitely in the liquid, as was shown by examining a container of the mixture three months after mixing. " Ref & story. Anyone trying this with conditive fibers yet? Editor.

Strong, Tough and Now Cheap: New Way to Process Metallic Glass Developed
Our advisors think this process have significant implications in wire formation and conducting fibers. See story.

Chemist Designs New Polymer Structures for Use as 'Plastic Electronics'
Iowa State University's Malika Jeffries-EL says she's exploring structure-property studies so she can teach old polymers new tricks. Those tricks improve the properties of certain organic polymers that mimic the properties of traditional inorganic semiconductors and could make the polymers very useful in organic solar cells, light-emitting diodes and thin-film transistors. The rest of the story.

Conductive Fibers as Circuit Substrate?
A recent presentation by Yirong Lin, Ph D, University of Florida, discuuses Multifunctional Active Composites for Enhanced Structural Safety and Performance. The story

Novel Electrode for Flexible Thin-Film Solar Cells
"If a solar cell made out of this material is bent, the electrode layers break and are no longer conductive. The challenge thus consists of manufacturing flexible yet stable conductive substrates, ideally in a cost-effective industrial rolling process."   One particularly promising possibility is the use of a transparent flexible woven polymer. The story.

Penn Research Advances Understanding of Lead Selenide Nanowires
The key contribution of the team's work has to do with controlling the conductive properties of lead selenide nanowires in circuitry. Semiconductors come in two types, n and p, referring to the negative or positive charge they can carry. The ones that move electrons, which have a negative charge, are called "n-type." Their "p-type" counterparts don't move protons but rather the absence of an electron — a "hole" — which is the equivalent of moving a positive charge. The story.

Huge Advances Forecasted from Nanotechnologies
from SpecialChem - Apr 1, 2011 Read the story

Applying Energy Harvesters To Textiles
By Raghu Das, Chairman, IDTechEx Energy harvesters enabling micro-power generation provide new levels of efficiency and automation in the built environment, process control, vehicles and healthcare. However, recently a large effort is being placed into developing the technology for integration into textiles. Read the whole story here.

Conductive FIbers Saving Lives
Channel News Asia reports that Life-saving kits in demand after Japan quake. The life saver is a jacket, the interior of which is made of electro-conductive fiber. The fiber can keep the temperature inside the jacket at 42 degrees Celsius for up to eight hours, hence it could save one's life at sub-zero temperatures.

Syscom Files to Trademark the Name "Liberator" for Conductive Fibers
On Thursday, December 16, 2010, a U.S. federal trademark registration was filed for LIBERATOR. This trademark is owned by Syscom Advanced Materials, Columbus, OH 43212. The USPTO has given the LIBERATOR trademark serial number of 85199174, Goods and Services: conductive fibers, namely, fibers for conducting electrical charges and fibers for electromagnetic interference shielding; metallized fibers. http://www.trademarkia.com/liberator-85199174.html

Auto Industry Looks at Aluminum Wire to Save Weight
We know copper wiring is heavy and has drawbacks. BMW is looking at aluminum wiring--see the referenced story. The US went through this phase with aluminum wiring in houses and industrial buildings—largely based on cost. The results were mixed at best.
Auto makers are looking at cost, availability, and WEIGHT. This changes the equation somewhat. Data and experience proves that conductive fibers can perform like wire, but at a fraction of the weight...the future of Conductive Fibers looks better every day.

Carbon Fiber Market: Cautious Optimism
As the recession recedes, the demand for carbon fiber, and the supply to meet it, will exceed prerecession expectations. Article From: High-Performance Composites March 2011, Jeff Sloan, Editor-in-Chief

Metalized Textiles Fashion Style
The Hong Kong Institute of Textiles and Apparel recently showcased the use of sputtering metallurgy to create metallized textiles. Process advantages are claimed to be: even deposition of dense nanoparticles on various textile structures and fibers; fabrics look like metal but are soft with metallic properties; and the non-aqueous process does not generate any water pollution. (We are researching this and will follow-up with more news.--Editor)

Coiled Nanowires May Hold Key to Stretchable Electronics
ScienceDaily (Jan. 12, 2011) — Researchers at North Carolina State University have created the first coils of silicon nanowire on a substrate that can be stretched to more than double their original length, moving us closer to incorporating stretchable electronic devices into clothing, implantable health-monitoring devices, and a host of other applications.... For full story, see: link.

Spinning the Unspinnable: Superconducting, Energy Storing and Catalytic Yarns Based on Ancient Types of Spirals
ScienceDaily (Jan. 10, 2011) — Nanotechnologists at The University of Texas at Dallas have invented a broadly deployable technology for producing weavable, knittable, sewable, and knottable yarns containing up to 95 weight percent of otherwise unspinnable guest powders and nanofibers. A minute amount of host carbon nanotube web, which can be lighter than air and stronger pound-per-pound than steel, confines guest particulates in the corridors of highly conducting scrolls without interfering with guest functionality for such applications as energy storage, energy conversion, and energy harvesting. For full story, see: link.

New High-Performance Fiber Created
Researchers at Northwestern University have nanoengineered a new kind of fiber that could be tougher than Kevlar. They created a high performance fiber from carbon nanotubes and a polymer that is remarkably tough, strong, and resistant to failure. For full story, see: http://www.mccormick.northwestern.edu/news/articles/article_791.html Update March 2011: Link.

Radically Simple Technique Developed to Grow Conducting Polymer Thin Films
A team of UCLA chemists and engineers has developed a new method for coating large surfaces with nanofiber thin films that are both transparent and electrically conductive. Their method involves the vigorous agitation of water, dense oil and polymer nanofibers. After this solution is sufficiently agitated it spreads over virtually any surface, creating a film. http://www.sciencedaily.com/releases/2010/11/101102091108.htm T This begs the question, at what point will conductive films become conductive fibers?--Editor

Striding Towards a New Dawn for Electronics
ScienceDaily — Conductive polymers are plastic materials with high electrical conductivity that promise to revolutionize a wide range of products including TV displays, solar cells, and biomedical sensors. A team of McGill University researchers now reports how to visualize and study the process of energy transport along one single conductive polymer molecule at a time, a key step towards bringing these exciting new applications to market. Continued: http://www.sciencedaily.com/releases/2010/09/100928032618.htm

Plastics + Nanoparticles = Perfect Combination reports ScienceDaily. Specifically Franhaufer Institute for Manufacturing Technology andAdvanced Materials IFAM in Bremen, researchers developed a process for manufacturing new materials that should afford aircraft better protection against lightning strikes. They have been focusing on the unique material properties of carbon nanotubes (CNTs).

Electonic textiles are certainly not new, and an ideal use of conductive textiles. New developments increase the potential by multi-tasking, to wit:
Plug Your iPod Into Your T-Shirt for Power?
ScienceDaily (Jan. 25, 2010) — Could powering an iPod or cell phone become as easy as plugging it into your T-shirt or jeans, and then recharging the clothing overnight? Scientists in California are reporting an advance in that direction with an easier way of changing ordinary cotton and polyester into "conductive energy textiles" -- e-Textiles that double as a rechargeable battery. Their report on the research appears in ACS' Nano Letters, a monthly journal. Continued: http://www.sciencedaily.com/releases/2010/01/100120113556.htm

Stretchable Fabric Switch - Patent 7378608
The present invention provides a stretchable fabric that may serve as a switch device or coupling to an electronic device and a power source by merely stretching or pusing the fabric. The stretchable fabrics may be usable in a wearable garment, furniture, or other suitable locations where it can be incorporated to close a circuit. Through a releasable stretching or pushing action by the user, electrically conductive strips integrated in the fabrics come in contact to activate related ancillary equipment such as power supplies or electronic devices. Continued:http://www.docstoc.com/docs/56912898/Stretchable-Fabric-Switch---Patent-7378608 This invention might also fill a long need to early warning systems, like when a critical rope is about to break-Editor

Ohio State University mentions AmberStrand's Syscom Advanced Materials in an article about commercial filter design student research http://car.eng.ohio-state.edu/news?page=1 and http://eeic.osu.edu/capstone/projects/current-projects . Also the company was mention in regards to Center for Automotive Research Advisory Meeting http://car.eng.ohio-state.edu/news?page=1

Carbon Nanotubes Twice as Strong as Once Thought
ScienceDaily (Sep. 16, 2010) — Carbon nanotubes -- those tiny particles poised to revolutionize electronics, medicine, and other areas -- are much bigger in the strength department than anyone ever thought, scientists are reporting. New studies on the strength of these submicroscopic cylinders of carbon indicate that on an ounce-for-ounce basis they are at least 117 times stronger than steel and 30 times stronger than Kevlar, the material used in bulletproof vests and other products.    ¶ The findings, which could expand commercial and industrial applications of nanotube materials, appear in the monthly journal ACS Nano. Continued: http://www.sciencedaily.com/releases/2010/09/100915140334.htm

Nanotubes Pass Acid Test
ScienceDaily (July 16, 2010) — Rice University scientists have found the "ultimate" solvent for all kinds of carbon nanotubes (CNTs), a breakthrough that brings the creation of a highly conductive quantum nanowire ever closer. http://www.sciencedaily.com/releases/2010/07/100714141538.htm

Lasers Used to Make First Boron-Nitride Nanotube Yarn
ScienceDaily (Dec. 3, 2009) — Researchers have used lasers to create the first practical macroscopic yarns from boron nitride fibers, opening the door for an array of applications, from radiation-shielded spacecraft to stronger body armor, according to a just-published study. http://www.sciencedaily.com/releases/2009/12/091202205634.htm

Silicon nanowires are attracting significant attention from the electronics industry due to the drive for ever-smaller electronic devices, from cell phones to computers. ........ Continued:http://www.sciencedaily.com/releases/2009/11/091111142514.htm

Stainess Steel successfully clad..according tp a US Patent Office application Nr. 20090050362, dated February 26, 2009, and submitted by Burke; Thomas F.; (Wayland, MA) ; Haller; James E.; (Haverhill, MA) , USA. Abstract reads: A yarn or multi-fiber formed of a plurality of micron diameter stainless steel monofilaments which have been rendered more conductive by one or more coatings of electrolytically-deposited metal or metal alloy materials. The metallized yarn provided by the invention has a very low electrical resistance, with consequent benefit in electrical performance, and is particularly useful as an RFI/EMI shielding material.

AmbiKraf develops an embedded non-emissive and fast changing wearable display .
AmbiKraf is a novel non-emissive analog fabric display that has rapid color changing capability based on embedded semiconductor peltier junctions that are completely integrated into the soft fabric, enabling novel animations and interactive scenarios in the normal clothes that we wear. Continued: http://www.mixedreality.nus.edu.sg/index.php?option=com_content&task=view&id=490&Itemid=36


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