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CAREERS |
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CONDUCTIVE YARN /METAL COATED FIBER + CONDUCTIVE FIBER-FILM NEWS |
SPONSORS SPONSORS |
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Myant Inc., and CarlisleIT Announce Strategic Partnership for Next Generation Conductive Yarns and The Future of Textile Computing |
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Who are the key end-users of the Conductive Yarn market? Here's a new study that may be purchased. We're trying to get a glimpse to share with you: https://bisouv.com/uncategorized/4483738/who-are-the-key-end-users-of-the-conductive-yarn-market/ |
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Fudan University team develops smart textile A team from Fudan University has developed a smart textile that can be used not only for display but also communication, as functional as computers or smartphones. According to Peng Huisheng, leader of the team from Fudan’s macromolecular science department, it developed transparent conductive weft fibers and luminescent warp fibers. When woven together, they form micrometer-scale electroluminescent units similar to those on a digital display screen. more |
Texworld Evolution Paris |
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How Textiles + Electronics Transformed into Soft
Systems and Increased Innovation https://www.linkedin.com/pulse/how-textiles-electronics-transformed-soft-systems-wildman-nugent |
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Huge potential for electronic textiles made with new cellulose thread Electronic textiles offer revolutionary new opportunities in various fields, in particular healthcare. But to be sustainable, they need to be made of renewable materials. A research team led by Chalmers University of Technology, Sweden, now presents a thread made of conductive cellulose, which offers fascinating and practical possibilities for electronic textiles. more |
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Conductive Fibers Market continue in growth spurt The proliferation of private studies of conductive fibers illustrates the tremendous interest in this arena, and most of them indicate continued growth. Since these reports are for sale, and condifentiasl, we can't comment further. But if you Google :conductive fibers markets) you should land on more than you can use. |
Call for Presentations Be a speaker at IFAI Expo 2021 IFAI Expo 2021 is looking for presentation topic ideas and interested speakers. Expo 2021 will be held Nov. 2-4, 2021 at the Music City Center in Nashville, TN USA, with education happening Nov. 1-4, 2021. See below for the types of presentations, education content categories and the timeline of the submission process. To fill out the submission form, click there https://ifaiexpo.com/call-for-presentations/. |
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Liquid metal based smart fiber sensor for
human-computer interaction |
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TETHON 3D LAUNCHES THREE NEW HIGH-PERFORMANCE 3D PRINTING RESINS, INCLUDING GRAPHENE Nebraska-based ceramic 3D printing specialist Tethon 3D has announced the launch of three new UV-curable 3D printing resins. Graphenite, Cordierite, and Mullite have all been developed for use with the company’s Bison 1000 DLP system, and are primarily intended for geometrically-complex engineering components. Greg Pugh, Tethon’s CTO, states, “Our team is very excited to launch these new materials. With the power of the Bison 1000 we are able to plug and play a wide variety of technical ceramics. The open settings of the printer also allows our customers to utilize Tethon 3D’s Genesis base resins to formulate custom ceramic and metal UV curable resins in house. With this system there are hundreds of materials that can be adapted to work within our open ecosystem.” more |
COVID Worries--Need a mask??? MYANT has one of the best masks we've found on the market |
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Recent progress of conductive polymers for advanced fiber-shaped electrochemical energy storage devices Over the past decades, flexible and wearable energy storage devices have received tremendous interest due to the development of smart electronic products, such as Apple Watch, Google Glass, and sport wristbands. Fiber-shaped electrochemical energy storage devices (FEESDs) derived from fibrous electrodes are standing out as a result of the excellent flexibility and breathability compared with planar counterparts. Textiles and fabrics can be simply achieved by spinning and weaving FEESDs, which perfectly match with the arbitrary uneven and mobile surface, revealing enormous potentialities in wearable electronics. more |
Give the Gift of Education Treat yourself or a coworker this Holiday Season with passes to the Virtual Symposium. In today's rapidly changing industrial landscape, knowledge is the best gift you can give! Our January sessions will equip you with need-to-know trends, technologies, and insights into the future of the textile industry. And as our gift to you, sessions are now 25% off using promo code TREAT25VS through January 15th, 2021! LINK |
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EPFL scientists have developed the first micro-structured fibers with a viscous metal inside—a perfect example of what cross-disciplinary teamwork can achieve. Platinum, copper, nickel and phosphorous—those are the components of an amorphous metal alloy with excellent mechanical properties. The alloy is also very corrosion-resistant and attract much interest in watchmaking and micromechanics. Now three scientists from EPFL's Laboratory of Photonic Materials and Fiber Devices (FIMAP) – Ph.D. student Inès Richard, postdoc Wei Yan and Professor Fabien Sorin—have given it a new purpose: they are using it to make electrodes for plastic fibers. Their paper, which was co-authored by Professor Jörg Löffler from ETH Zurich, has been published in Nature Nanotechnology. more |
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Incredible Increase in Conductive Fiber Market Studies? Has anyone else noticed the quantitative increase in market studies around conductve fibers? Thier prices are sustantial, and we had only been able to purchase a few. Due to privacy restrictions, we don't publish those results. But the market in growing, and interest is exponential! We had tried to keep track of them and publish a list, but there are too many now. |
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How To Distinguish Anti-static Fabrics Grade The development of anti-static fabrics has given birth to various specifications and types of anti-static fabrics. We can roughly divide these anti-static fabrics into three categories. continued |
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Effects of surface condition of conductive electrospun nanofiber mats on cell behavior for nerve tissue engineering Abstract. Electrospun nanofibrous scaffold is a promising implant for peripheral nerve regeneration. Herein, to investigate the effect of surface morphological features and electrical properties of scaffolds on nerve cell behavior, we modified electrospun cellulose (EC) fibrous mats with four kind of soluble conductive polymers derivates (poly (N-(methacryl ethyl) pyrrole) (PMAEPy), poly (N-(2-hydroxyethyl) pyrrole) (PHEPy), poly (3-(Ethoxycarbonyl) thiophene) (P3ECT) and poly (3-thiophenethanol) (P3TE)) by an in-situ polymerization method. The morphological characterization showed that conductive polymers formed aggregated nanoparticles and coatings on the EC nanofibers with the increased fiber diameter further affected the surface properties. Compared with pure EC scaffold, more PC12 cells were adhered and grown on modified mats, with more integral and clearer cell morphology. The results of protein adsorption study indicated that modified EC mats could provide more protein adsorption site due to their characteristic surface morphology, which is beneficial to cell adhesion and growth. The results in this study suggested that these conductive polymers modified scaffolds with special surface morphology have potential applications in neural tissue engineering. more |
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Layer-by-layer assembly for all-graphene coated conductive fibers toward superior temperature sensitivity and humidity independence Conductive fibers are key parts in smart textiles. Layer-by-layer (LbL) technique based on the alternating coating of graphene oxide (GO) and the adhesive layer is usually used to increase the conductivity of graphene coated fiber. MORE |
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Perfect for Earth Day, 2020 Flexible electronics made with wood-based nanotechnology Nanowerk Spotlight) Wood has been traditionally used as lumber or has been deconstructed into elemental fibrils before being reconstructed into various material such as paper, cardboard and artificial wood-based products. More recently, nanocellulose from wood – a nanomaterial derived from breaking wood fibers down to the nanoscale – has found additional applications such as strength enhancers in paper and biocomposites, barriers for packaging, emulsifiers, in oil separation, substrates for printing electronics, filtration, and biomedicine. "Wood nanotechnologies are not only associated with extraction and use of nanocellulose or lignin but also with tailoring and functionalizing the hierarchical nanostructure of bulk wood for functional materials," Qiliang Fu, a Wood and Fiber Scientist at Scion, a New Zealand government research institute, tells Nanowerk. "In our latest research we use a top-down approach with a mild chemical treatment that allows the preservation of the complex structure and the original orientation of the cellulose fibres. By conserving the wood structures, a highly aligned cellulosic material with excellent strength is achieved." more |
NOTE FROM THE DIRECTOR Most material conventions are posponed or cancelled; some of our members and suppliers are on COVID-19 shutdown or hiatus. Meanwhile, we are open for business and ready to serve our members and parties interested in conductive fibers and films.
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Highly stretchable CNT/MnO2 nanosheets fiber supercapacitors with high energy density Another development in an area of interest to us--circuits on a fiber (COF)--Ed. Fiber-shaped supercapacitors (FSSCs) are promising devices in the wearable electronics because of their good flexibility, weavability, tiny volume and lightweight. However, the low stretchability and energy density limit their practical applications on wearable electronics requiring deformation and high energy density. It remains challenging to increase the energy densities of FSSCs without sacrificing their stretchability. More |
Most of our members check out companies and contacts on LinkedIn. Are you on LinkedIn? you can find CFMC's founder at: https://www.linkedin.com/in/truxmarketing/ |
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Gold-coated pantyhose inspire a technique for comfortable light-emitting clothing An approach for developing light-emitting fabric based on typical ultrasheer pantyhose coated in a thin gold film may enable the development of softer, more wearable luminous clothing, researchers in Canada report March 4 in the journal Matter. The work addresses some of the limitations of existing light-emitting fabrics and, with effective power sources, could be developed into more functional designs for safety gear worn by first responders and nighttime construction workers, light-emitting athletic apparel, avante garde and everyday fashion, or wearable advertisements and logos. more |
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Assembly of graphene oxide on cotton fiber through dyeing and their properties Materials with electrical conductivity are preferred for electronics, medical, space and other applications. Flexible, stretchable and washable conductive fabrics have been preferred over metallic materials. However, the currently available conductive fabrics are mainly made using a dip-drying process which makes it difficult to obtain a regular assembly structure of graphene sheets on the fibers. In this research, we report the development of conductive cotton fabrics through simple dyeing, graphene oxide (GO) with two distinct sizes was used to dye the fabrics which were later reduced using hydrazine hydrate. The regularity of graphene sheets on the surface of the cotton fiber can be improved by level assembly, it is beneficial to the conductive stability of the later drawing, bending and friction process. The results show that, the fabrics coated with graphene had excellent fastness to washing, friction and bending. After 20 washings and exposure to 2000 rubbing and 1000 bending cycles, the fabrics had excellent conductivity retention of 86%, 55% and 99%, respectively. In addition, the introduction of graphene causes the dyed fabric to have good infrared absorption and excellent UV resistance. Using cotton fabrics and GO to impart conductivity and UV resistance would be an affordable, sustainable and novel approach to develop functionalized materials for various applications. more/citation |
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Development & Characterization of
Alginate/Graphene Oxide Fibers with Improved Electrical Conductivity |
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IPC-Association Connecting Electronics Industries
Continues Work on Standards |
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How IIoT technology can help H&S Serious workplace injuries cost US manufacturers more than $7 billion each year, according to Liberty Mutual’s 2019 Workplace Safety Index. Overexertion, falls, collisions with equipment, getting caught in equipment and repetitive motion injuries are the most common reasons that workers in this sector miss 5 or more days of work. Sam Cece, founder, president, & CEO of Swift Sensors, reports. Compliance with OSHA standards and a culture that emphasises safety are important elements of injury reduction. However, more solutions are needed, and the Industrial Internet of Things (IIoT) is delivering them. Citation&More |
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Electrical conductivity of anisotropic PMMA composite filaments with aligned carbon fibers – predicting the influence of measurement direction In order to study the electrical conductivity of anisotropic PMMA/carbon fiber (CF) composites, cylindrical PMMA/CF filaments were extruded through a capillary rheometer, resulting in an induced CF orientation along the extrusion direction. The aspect ratios of the CFs in the filaments were accurately regulated using a two-step melt mixing process. By measuring the vertical and horizontal resistances of filaments where the outermost layer was successively peeled off, the anisotropic conductivities could be calculated. This was done using a novel analytical model where each cylindrical composite filament was defined as a structure consisting of three concentric cylinders with potentially different conductivities and CF orientations. The electrical conductivity increased with the degree of fiber orientation along the voltage direction and the effects of anisotropy and measurement direction were incorporated into the (isotropic) McLachlan equation. The required distance for electrical contact between the CFs was calculated to be 16 nm. Finite element (FEM) simulations were successfully utilized to confirm the data. Citation&MORE |
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Causes Of Electrostatic Phenomena In Textiles And Antistatic Methods In the textile production process, static electricity will affect the quality of spinning and weaving products, and even affect the dyeing and finishing process. For example, after drying, the moisture content of fabric decreases, and it is not easy to generate static electricity. It is often adsorbed on metal parts, and there is a disorder winding phenomenon. Because the same fabric has the same charge and mutual exclusion, the falling cloth is not easy to fold and neatly, which affects the processing of the lower track. The operator's hand and the contact with the charged dry cloth are often subjected to electric shocks. The clothing with static electricity is easy to absorb dust and pollute. After taking the clothes with static electricity, they will be entangled with each other, and the phenomenon of "skirt embracing legs" will cause mutual discomfort. Citation&More |
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Axial alignment of carbon nanotubes on fibers to enable highly conductive fabrics for electromagnetic interference shielding Conductive coatings show great promise for next-generation electromagnetic interference (EMI) shielding challenges on textile; however, their stringent requirements for electrical conductivity are difficult to meet by conventional approaches of increasing the loading and homogeneity of conductive nanofillers. Here, the axial alignment of carbon nanotubes (CNTs) on fibers that obtained by spontaneous capillary-driven self-assembly is shown on commercial cotton fabrics and its great potential for EMI shielding is demonstrated. The aligned CNTs optimize structurally the conductive network on fabrics and yield an 81-fold increase in electrical conductivity per unit CNT, compared with the disordered CNT microstructure. The high-efficiency electrical conductivity allows a several-micron-thick coating on insulating fabrics to endow an EMI shielding effectiveness of 21.5 dB in the X band and 20.8 dB in the Ku band, respectively, which meets the standard shielding requirement in commercial applications. It is among the minimum reported thicknesses for conductive nanocomposite coatings to date. Moreover, the coated fabrics with aligned CNTs possess a desirable stability upon bending, scratching, stripping and even washing, which is attributed to the dense CNT packing in the aligned microarchitecture. This work presents the anisotropic structure on large areas by self-assembly, offering new opportunities for next-generation portable and wearable electronic devices. Citation&More |
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Statex and V Technical Textiles Announce the Availability of a New Textile-Based Circuitry Technique V Technical Textiles, Inc. and our European Partner, Statex Produktions-und Vertriebs GmbH, and have announced the availability of a Selective Plating Technique, a joint technology developed by our European Partner Statex and Laird Performance Materials. This technology will not only create the ability to selectively silver plate an electrically conductive pattern or circuit on to both sides of a flexible fabric substrate but literally through all three dimensions of the fabric, including top and bottom sides and the fabric in between the sides. This has helped in the durability of the plating when subjected to multiple stretch and wash processes, which has always been a difficulty with the traditional screen printed conductive ink processes. The new technology has passed rigorous testing involving stretching and washing cycles with no noticeable negative effects in electrical performance. This improved technique could well be used in situations requiring low amperage flexible circuits that are particularly useful in the medical field when sensors are attached to a flexible human substrate, the skin. These circuits will also be useful in touch-activated switches, and patch antennas in the automotive, aerospace, military, telecommunications, and smart textiles industries and in combination with other electronic devices. Combined with “silverized yarn wires” covered with Thermoplastic PolyUrethane (TPU) to provide durable, flexible connections for these circuits, the potential uses for this new technology are almost endless. Please contact us with your ideas for this new technology and we’ll be happy to help you design and develop your product from conception to prototype and through to production! link 12/2019
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Toyobo Demonstrates Exciting Products at last
week's IDTechEx Show: |
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Researchers Use Conductive Carbon Fibers to Repair Damaged Electrical Circuits in Mice Hearts Humans Next? Researchers developed very fine carbon fiber threads with electrical conductivity. Each thread measured a quarter of the width of human hair and was non-toxic, polymer-coated. These treads were embedded with tens of millions of microscopic nanotubes from inside and their tips were stripped back to serve as electrodes. Teams sewed these threads through damaged tissues in the hearts of mice, which allowed electric signals to carry on traveling back and forth. Prior to this study, the rodents experienced disruptions in electrical signals in their hearts, however, fibers proved to be effective in restoring the signals over a month-long testing period. more |
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Google and Levi's introduce a new smart jacket that
can answer calls and snap selfies Google and Levi's are once again teaming up to launch a line of tech-infused denim jackets. The new Levi's Trucker Jacket is infused with Google's Jacquard technology. It's pretty much the same concept we saw in 2017, but with some notable upgrades. The underlying tech behind the jacket still relies on a Bluetooth-enabled "tag" that clips into the jacket's left cuff, which acts as a touchpad so you can control your music and a handful of other apps by swiping on it. https://mashable.com/article/google-levis-jacquard-trucker-jacket/ |
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Conductive Textile Market Perceptions Targeting Industrial Expansion Studied During The Forecast Period, 2019-2027 In 2018, The Global Conductive Textile Market Was Valued At ~US$ 1.2 Billion, And Is Set To Offer Lucrative Opportunities To Market Players During The Forecast Period. Conductive Textile Is Used In Various Range Of Applications Such As Military & Defense, Sports & Fitness, Medical & Healthcare, Consumer Electronics, Etc. Increasing Number Of Applications In Wearable Electronics Like Health Monitoring, Biomedical Sensors, Wearable Displays, Data Managing Devices, Electromagnetic Interference Protection, And Radio Frequency Interference Protection Are Set To Propel The Conductive Textile Market Growth Over The Forecast Period. Although The Global Conductive Textile Market Is Highly Fragmented, Few Prominent Players In The Conductive Textile Market Are 3M Company, Eeonyx Corporation, Laird, PLC, Metal Textiles Corporation, Parker Hannifin Corporation, Seiren Co. Ltd, Swift Textile Metallizing, LLC, Toray Industries, Inc., And Others. Stakeholders In The Conductive Textile Market Are Focusing On Technological Advancements, Product Innovations, And Adoption Of New Materials To Find Cost-Effective Solutions With Ideal Enhancements. Conductive Textile Market Players Are Also Entering Into Long-Term Partnerships With End-Use Industries, Raw Material Suppliers, And Global Players To Have A Strong Presence In The Worldwide Market. These Strategies Help Them Cater To The Dynamics In The Conductive Textile Market. There Is More Focus On Flexible, Lightweight With High Strength, And Pocket-Friendly Products, Which Lead To The High Demand For Smart Fabrics. For Instance, Bekaert Offers Conductive Textile And Yarns Products Under The Brand Name Of Bekinox®. The Product Provided By Bekaert Are ~100% Stainless Steel Or Can Be Blended With Other Materials Like Cotton And Polyester To Meet As Per The Application. Steel Offers High Conductivity And Efficient Transfer Of Data And Energy, Whereas Yarns Provide Flexibility And Durability To Offer Comfortable Conductive Textiles. A Range Of Conductive Textiles Meet Various Applications In Wearable Electronics, Sensors, Antennas For RFID Tags, And Electrotherapy Pads. Similarly, SEIREN Co. Ltd. Offers Conductive Fabrics, Flexible Circuit Boards For The Wearable Devices With Infused Sensors, Which Are Equipped With LED, Having A Thickness Of Nearly 1mm. Furthermore, TORAY INDUSTRIES, INC. Offers Bio-Electrode Conductive Nano-Fiber Fabric Under The Brand Name Of Hitoe™. These Conductive Textiles Are Infused With Conductive Polymers And Monitor The Physical State, Stress Level, And Other Parameters During Sports Training. More. amd ordering info |
Call for Proposals Now Open Industrial Fabrics Association International (IFAI) is looking for content to present at the 2020 Smart Fabrics Summit, April 16-17, 2020 in Washington D.C. The conference theme is "Ideation to Commercialization". The 2020 Summit is all about how to bring a smart product to market, from the initial concept to development to end product distribution and everything in between. We are seeking proposals that demonstrate this concept and look forward to your stories, experience and expertise. Contact: https://smartfabricssummit.com/ |
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Under Armour Space Suits for Space Tourists, with gold fibers |
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Global EMI Shielding Market Analysis to Reach USD 7.95 Billion In 2024 The Zion Market Research added Most up-to-date research on “EMI Shielding Market: by Component (EMI Shielding Tapes & Laminates, Conductive Coatings & Paints, Metal Shielding, Conductive Polymers, and EMI/EMC Filters), by Method (Radiation and Conduction), and by End-use Industry (Consumer Electronics, Telecom & IT, Automotive, Healthcare, Defense & Aerospace, and Others) – Global Industry Perspective, Comprehensive Analysis and Forecast, 2017 – 2024” to its huge collection of research reports. The present global EMI Shielding Market research report assists the market’s new bees as well as established players to study and guesstimate the EMI Shielding Market scenario within the expected time. The distinctiveness of the global EMI Shielding Market report is it touches local as well as international elements of the EMI Shielding Market in an easy to understand way. Numerous important market players are heading the global EMI Shielding Market via embracing a massive part of the global EMI Shielding Market. Request a Sample of EMI Shielding Market Report: www.zionmarketresearch.com/sample/emi-shielding-market |
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This isn't our usual product, but interesting to find conductive fibers in nature Cable bacteria: Living electrical wires with record conductivity Cable bacteria are centimeter-long micro-organisms that consist of thousands of cells in a row. "These multicellular bacteria were only discovered a few years ago, and we already knew they were doing something exceptional," ...more Scientists have created bacteria capable of conducting current more |
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Stretchable and Flexible E-Fiber Wire Antennas A new process to fabricate stretchable and flexible wire antennas with conductive fibers (E-fibers) Current processes to manufacture flexible, mechanically durable antennas on E-fibers yield non-stretchable prototypes and lack fine print details. The geometric accuracy of printed antennas is less than 1 mm, and the devices are prone to failure due to fatigue and wear from deformation. The antenn&ldots; more |
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Future Market Insights' latest study:
Conductive fibers recorded a volume sales of approximately 42 thousand tons, equating a value of US$ 1.2 billion in 2018. As per the insights culled by the latest report of Future Market Insights (FMI), the global conductive fibers market is likely to spectate high growth over the course of the forecast period, driven by a plethora of factors. The growth in sales can be attributed to the increasing use of conductive fibers in electromagnetic shielding, in light of growing electromagnetic pollution with the near-ubiquitous use of smartphones, smart watches, and similar electronic devices. "Adoption of conductive fibers continues to face technical and commercial challenges w.r.t the sensor size on the technical front and limited awareness on the commercial front. Manufacturers prioritizing their investments in industry-specific development of conductive fiber are likely to add new application dimensions and revenue channels to the market, finds FMI's report". See the full release with more information and graphics, with contact intormation at our News Release tab |
Consider CFMC MEMBERSHIP CFMC is built around three core constituencies: (1) Manufacturers, (2) Academic and Research and Development members, and (3) Application users or customers of conductive fibers. We offer three levels of membership to accommodate these constituencies: active, associate, and allied. Isn't it time you joined? Contact us for Membership Information
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Boosting wearable signals Researchers at the National University of Singapore and University of Waterloo developed a conductive textile that can be used in clothing to boost the communications power of wearable devices and sensors. The team says such a ‘wireless body sensor network’ allows devices to transmit data with 1,000 times stronger signal, improving device battery life. Typically, wearable devices use Bluetooth or Wi-Fi to report back to the user’s smartphone. As they broadcast several meters in all directions, energy is lost to the surrounding environment. Instead, when woven into clothing, the team’s metamaterial textile is able to create ‘surface waves’ which can glide wirelessly around the body such that the energy of the signal between devices is held within 10 centimeters of the body rather than spread in all directions. more |
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Transparent Conductive Films (TCFs) Market Development, Top Trends and Future Scope with Upcoming Opportunities A global Transparent Conductive Films (TCFs) market report has come to the stands. The report, which is released by Industry Research, offers a lot of details that allow everyone to understand different things without difficulties. The study integrated key details such as production, growth rate, consumption, market share, production volume, price, gross margin, and revenue. The report has opinions from industry experts and offers an overview of the past years and the current market situation. more |
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3D Printing of Conductive fibers: University of Wollongong: Refining the Cochlear Implant with 3D Printing |
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Hemp as a Conductive Fiber? Interesting idea, read here |
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Scientists make unique wearable technology discovery involving acids from red wine Tannic acid may be the key to next-gen wearable tech. A team of scientists from the University of Manchester have made a wearable technology discovery involving tannic acid that could lead to the development of more durable and flexible wearable devices. The researchers extracted tannic acid from red wine, coffee and black tea for their experiment. more |
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circut on fiber become reality Washable Electronic Textiles to Usher in an Era of Even Smarter Wearable Products Transistors connected with twisted electrodes maintain functionality even after being bent and washed over 1,000 times and can activate LED or detect electrocardiogram signals more
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New way to beat the heat in electronics Rice University lab's flexible insulator offers high strength and superior thermal conduction A nanocomposite invented at Rice University's Brown School of Engineering promises to be a superior high-temperature dielectric material for flexible electronics, energy storage and electric devices. The nanocomposite combines one-dimensional polymer nanofibers and two-dimensional boron nitride nanosheets. The nanofibers reinforce the self-assembling material while the "white graphene" nanosheets provide a thermally conductive network that allows it to withstand the heat that breaks down common dielectrics, the polarized insulators in batteries and other devices that separate positive and negative electrodes. more |
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COLLABORATE TO INNOVATE When innovation succeeds Collaborative, long-term efforts produce successful new products and applications. by Marie O'Mahony Harvard professor and author of "The Innovator's Dilemma," Clayton M. Christensen, identifies two forms of innovation: sustaining and disruptive. The former he classifies as that which improves product performance, while the latter introduces a very different value proposition from what was previously available. Read more |
Consider CFMC MEMBERSHIP CFMC is built around three core constituencies: (1) Manufacturers, (2) Academic and Research and Development members, and (3) Application users or customers of conductive fibers. We offer three levels of membership to accommodate these constituencies: active, associate, and allied. Isn't it time you joined? Contact us for Membership Information
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The global conductive filler market is expected to reach an estimated $5.8 billion by 2023 with a CAGR of 5% from 2018 to 2023 PR Newswire May 27, 2019 NEW YORK, May 27, 2019 /PRNewswire/ -- Trends, opportunities and forecast in conductive filler market to 2023 by product type (carbon black, graphite, carbon fiber, alumina, copper, silver, steel, and others), by application (plastics, adhesives, coatings, battery and fuel cells, and metallurgy), by end use industry (consumer electronics, automotive, industrial, aerospace, and others), function type (electrical and thermal), and by region (North America, Europe, Asia Pacific, and the Rest of the World) Read the full report: https://www.reportlinker.com/p05778614/?utm_source=PRN |
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Electrically Conductive Coatings for Fiber-Based E-Textiles Kony Chatterjee, Jordan Tabor and Tushar K. Ghosh * Department of Textile Engineering, Chemistry and Science, Wilson College of Textiles, North Carolina State University, Raleigh, NC 27606, USA; kchatte@ncsu.edu (K.C.); jatabor@ncsu.edu (J.T.)* Correspondence: tghosh@ncsu.edu; Tel.: +1-919-515-6568 Abstract: With the advent of wearable electronic devices in our daily lives, there is a need for soft, flexible, and conformable devices that can provide electronic capabilities without sacrificing comfort. Electronic textiles (e-textiles) combine electronic capabilities of devices such as sensors, actuators, energy harvesting and storage devices, and communication devices with the comfort and conformability of conventional textiles. An important method to fabricate such devices is by coating conventionally used fibers and yarns with electrically conductive materials to create flexible capacitors, resistors, transistors, batteries, and circuits. Textiles constitute an obvious choice for deployment of such flexible electronic components due to their inherent conformability, strength, and stability. Coating a layer of electrically conducting material onto the textile can impart electronic capabilities to the base material in a facile manner. Such a coating can be done at any of the hierarchical levels of the textile structure, i.e., at the fiber, yarn, or fabric level. This review focuses on various electrically conducting materials and methods used for coating e-textile devices, as well as the different configurations that can be obtained from such coatings, creating a smart textile-based system. |
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Antennas of flexible nanotube films an alternative for electronics (Nanowerk News) Antennas made of carbon nanotube films are just as efficient as copper for wireless applications, according to researchers at Rice University’s Brown School of Engineering. They’re also tougher, more flexible and can essentially be painted onto devices. The Rice lab of chemical and biomolecular engineer Matteo Pasquali tested antennas made of “shear-aligned” nanotube films. The researchers discovered that not only were the conductive films able to match the performance of commonly used copper films, they could also be made thinner to better handle higher frequencies. MORE |
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Short Carbon-Fiber Filled PP Composites Launched Italian compounder Xenia Materials has developed a new series of short carbon-fiber filled PP thermoplastic composite grades under the XECARB 11 brand. (While the company does not currently have a North American office, they well sell directly, as they have been, to interested customers, according to technical sales manager Enrico Mancinetti.) More |
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3-D printer threads electronic fibers onto fabrics The potential for wearable electronics goes far beyond smart watches, but our current options for battery packs and circuit boards don't make for the most comfortable E-socks. One solution, being developed by scientists in China, is to simply print flexible fibers on to transitional textiles or clothes. For example, they printed patterns that can harvest and store electricity onto fabrics. With a 3-D printer equipped with a coaxial needle, they drew patterns, pictures, and lettering onto cloth, giving it the ability to transform movement into energy. The advance appears March 27 in Matter, a new materials science journal from publisher Cell Press. more |
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Soft capacitor fibers for electronic textiles |
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Engineers Craft the Basic Building Block for Electrospun Nanofibers Biomedical engineers cut post-processing steps to make electrospun nanofibers for wound healing and improve 3D-matrices for biological tissues. They speed up prototyping using identical materials. Electrospinning uses electric fields to manipulate nanoscale and microscale fibers. The technique is well-developed but time-intensive and costly. A team from Michigan Technological University came up with a new way to create customizable nanofibers for growing cell cultures that cuts out time spent removing toxic solvents and chemicals. Their work is published in Elsevier’s Materialia (DOI: 10.1016/j.mtla.2019.100296). more |
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Silver nanowires promise more comfortable smart textiles In a paper to be published in the forthcoming issue in NANO, researchers from the Nanjing University of Posts and Telecommunications have developed a simple, scalable and low-cost capillary-driven self-assembly method to prepare flexible and stretchable conductive fibers that have applications in wearable electronics and smart fabrics. more |
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New Fiber Could Be the Foundation for Futuristic
Smart Garments Designers of smart garments have a vision: that we’ll come to use electronics woven into the clothes we wear not just as dazzling new ways to express ourselves, like the light-up prom dress that went viral in 2017, but as extensions of our digital lives that could collect biometric data or even grant wearers superhuman senses. more |
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Global
Conductive Yarn Market by Product Type, Market, Players and
Regions-Forecast to 2022
1.1 Industry Definition
Chapter 2 World Market Competition Landscape |
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Microfluidics Woven into Fibers Have Potential for New Devices Microfluidics have been woven into fibers by researchers at MIT to allow for more complex medical-testing devices. A multidisciplinary team of electrical engineers, materials scientists, and microsystems technologists has discovered a way to solve a challenge with microfluidics devices that could only allow for them to be used on a tiny scale. They therefore extended their range of use, as described in an MIT news release. link |
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RESEARCH REVIEW: 3D PRINTED GOLD, JAXA CARBON FIBER COMPOSITES, MULTIMATERIAL ELECTRONICS |
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Highly conductive and stretchable fiber interconnections using dry-spun carbon nanotube fibers modified with ionic liquid/poly copolymer composite In this paper, we demonstrate highly conductive and stretchable fiber interconnections for electronic textiles (e-textiles) using dry-spun carbon nanotube (CNT) fibers modified with ionic liquid (IL)/poly (vinylidene fluoride-co-hexafluoropropylene) (PVDF-HFP) copolymer composite. By adopting direct infiltration of CNT fibers with a mixture of 1-butyl-3-methylimidazolium bis(trifluoromethylsulfonyl)imide and PVDF-HFP, mechanical properties such as stretchability, maximum load and strain were significantly improved while minimizing the reduction in electrical conductivity. more |
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Continuous Fiber Manufacturing blurs the line between 3D printing and AFP Continuous fiber manufacturing (CFM) is a 3D printing/continuous fiber deposition process patented by moi composites. more |
Vesti is a wholly-owned subsidiary of Epinicion Technologies, LLC |
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Battery Fashion: Scientists Weave Rechargeable
Electronics Into Clothes
Wearable electronics are nothing new, but the
technology has been limited by the question of how to power them for
long periods without toting around a bulky charge storing device. Not
any longer. Thanks to UMass Amherst materials scientist Trisha L.
Andrew, a battery can now be stitched directly into your lapel. |
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Inside these fibers, droplets are on the move |
Consider CFMC MEMBERSHIP CFMC is built around three core constituencies: (1) Manufacturers, (2) Academic and Research and Development members, and (3) Application users or customers of conductive fibers. We offer three levels of membership to accommodate these constituencies: active, associate, and allied. Isn't it time you joined? Contact us for Membership Information |
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Ford Begins Building Cars With New Material That Is Lighter & Stronger Than Carbon Fiber Ford will begin using a new material in their vehicles that is both lighter and stronger than carbon fiber. The new material in question isn’t actually new--it was originally discovered in 1962, but nobody knew what to do with it so it languished in academic papers for decades. It was then rediscovered in 2004 by Andre Geim and Konstantin Novoselov at the University of Manchester, who then spent years studying the new “miracle material”. They even won a Nobel Prize in Physics in 2010 for their work. That material is called graphene. more |
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Dynamic assembly of liquid crystalline graphene oxide gel fibers for ion transport Colloidal dispersions with liquid crystallinity hold great promise for fabricating their superstructures. more |
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Next-generation composites may monitor their own structural health (ed: wonder if we can translate this to fibers also?) Carbon fiber composites—lightweight and strong—are great structural materials for automobiles, aircraft and other transportation vehicles. They consist of a polymer matrix, such as epoxy, into which reinforcing carbon fibers have been embedded. Because of differences in the mechanical properties of these two materials, the fibers can detach from the matrix under excessive stresses or fatigue. That means damage in carbon fiber composite structures can remain hidden below the surface, undetectable by visual inspection, potentially leading to catastrophic failure. more also here |
ARACON: The strength of KEVLAR® brand fiber with the conductivity of metal www.araconfiber.com |
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Crack propagation design in transparent polymeric conductive films via carbon nanotube fiber-reinforcement and its application for highly sensitive and mechanically durable strain sensors Conductive thin films are typically subject to crack formation and propagation under tensile strain, turning into insulating films due to complete breakage at large strain. However, if such crack propagation can be intentionally designed, repetitive resistance change can be obtained and used for implementation of high-performance strain sensors that are suitable for biocompatible and stretchable electronic applications. more here |
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New VOLT Smart Yarns Wearable Tech Division Provides Cutting-Edge Smart Apparel and Fabric VOLT Smart Yarns CEO Matt Kolmes unveils the new Wearable Tech division, a B2B one-stop shop for brands looking to add wearable technology into their products, at the 2018 IFAI Expo more |
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Conference Gives Glimpse into Future of Printed Electronics, Conductive Inks Smart packaging, displays, RFID and more are covered in inaugural Electronic and Conductive Ink Conference. more |
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Ford Begins Building Cars With New Material That Is Lighter & Stronger Than Carbon Fiber Graphene is both extremely light and extremely strong – about 200 times stronger than steel, and about 20 times stronger than carbon fiber. It can also be machined to be very thin and flexible, and also has conductive properties. more |
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Conductive Yarn Market Study Even if you don't purchase the study, the categoeis and tables of contents are illustrative of the potential. more |
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Isolated carbon nanotubes show clear advantage The small dimensions, optical and electronic properties, and flexibility of single-walled carbon nanotubes (SWCNTs) make them ideal candidates for transparent conductive films in touch screens, smart windows, photovoltaic cells, and other devices. But when SWCNTs aggregate and become bundled together, Schottky junctions form between the nanotubes that downgrade their optoelectronic properties. Now, however, researchers have created a network of isolated, individual nanotubes that avoid these issues more |
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Are Carbon Nanotubes More than Just a Yarn? A carbon nanotube (CNT) is a cylindrical allotrope of carbon, essentially a sheet of graphene (a single-layer hexagonal lattice of carbon) rolled into a cylinder. Since its discovery in 1991, much has been made of its potential applications. Its high conductance and high electron mobilities have tantalized engineers with the possibilities of future electronics applications. CNT’s physical strength has led to predictions of new materials, particularly super strong threads, yarns and cables. Although progress has been made in the laboratory, industrialized production of CNTs has been elusive. more |
Consider CFMC MEMBERSHIP CFMC is built around three core constituencies: (1) Manufacturers, (2) Academic and Research and Development members, and (3) Application users or customers of conductive fibers. We offer three levels of membership to accommodate these constituencies: active, associate, and allied. Isn't it time you joined? Contact us for Membership Information |
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A Highly Conductive Fiber with Waterproof and Self-cleaning Properties for Textile Electronics Major concerns in developments of wearable textile electronics are exposure to moisture and contamination. The exposure can cause electrical breakdown of the device and its interconnections, thus continuous efforts have been made to fabricate textile electronics which are free from moisture and pollution. Herein, we developed a highly conductive and waterproof fiber with excellent electrical conductivity (0.11 O/cm) and mechanical stability for advanced interconnector component in wearable textile electronics. more |
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‘Iron Man’ suit could charge electronics DAYTON — University of Cincinnati engineers and the Air Force Research Laboratory at Wright-Patterson Air Force Base are developing clothing that can charge your cellphone. The clothing is so technologically advanced that it might remind you of a scene out of “Iron Man.” The clothing uses the unique properties of carbon nano-tubes: a large surface area that is strong, conductive and heat-resistant, according to UC. UC’s College of Engineering and Applied Science has a five-year agreement with the Air Force Research Laboratory to consider ways to enhance military technology. UC’s Nanoworld Laboratories, co-directed by professor Vesselin Shanov, is using their expertise in electrical, chemical and mechanical engineering to craft “smart” materials that can power electronics.More |
COLLEGE OF
TEXTILES & |
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Editor's observation There seems to be tremendous uptick in market studies about conductive fibers--more than five per week. Looks like a lot of people are interested in this market place. |
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Novel sensors could enable smarter textiles A team of engineers at the University of Delaware is developing next-generation smart textiles by creating flexible carbon nanotube composite coatings on a wide range of fibers, including cotton, nylon and wool. Their discovery is reported in the journal ACS Sensors where they demonstrate the ability to measure an exceptionally wide range of pressure—from the light touch of a fingertip to being driven over by a forklift. more |
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Myant Inc., And CarlisleIT Announce Strategic Partnership For Next-Generation Conductive Yarns And The Future Of Textile Computing Ed note: A very big development, signalling the healthy future for conductive yarns The news release |
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Military wearable computing hits the mainstream Ed note: This article describes the exciting and large future for integrated clothing-electronics for the warfighter. Well written, and a must read about our future. Read here. |
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Here's an exciting new type of solarcell--Perovskite: |
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Ultrahigh energy fiber-shaped supercapacitors based on porous hollow conductive polymer composite fiber electrodes |
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The Basics of Rapid Injection Molding |
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Exciting development: |
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Stretchable Conductive Fibers Based on a Cracking
Control Strategy for Wearable Electronics |
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Organic Conductive Fibers as Nonmetallic Electrodes and Neural Interconnects
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COLLEGE OF
TEXTILES & |
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Video: Essentium Shows off Unique Additive Materials |
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GLOBAL CONDUCTIVE STAINLESS FIBERS MARKET RESEARCH
REPORT 2017 |
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Effect of adding carbon fiber on conductive
stability of acrylonitrile-butadiene rubber composites |
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Another development to complement conduuctive fibers: Deformable robots would be endlessly useful. There are any number of materials available that can serve as the bodies of robots that would wiggle and wriggle; what’s lacking is electronics that are similarly deformable and would enable and control the movement. This is one of the inspirations for investigating liquid metal electronics, and the recent demonstration of a liquid metal switch is an encouraging sign that liquid metal electronics might be not just possible but also practical. more |
Consider CFMC MEMBERSHIP CFMC is built around three core constituencies: (1) Manufacturers, (2) Academic and Research and Development members, and (3) Application users or customers of conductive fibers. We offer three levels of membership to accommodate these constituencies: active, associate, and allied. Isn't it time you joined? Contact us for Membership Information |
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Another development to complement conduuctive fibers: A new light-emitting device has been developed in the laboratory of Ali Javey, professor of electrical engineering and computer sciences at Berkeley, and it may have a very bright future. The new device is three atoms thick and can be made smaller than a human hair. Funded by the National Science Foundation and the Department of Energy, the advancement was published in Nature Communications on March 26. A previously published work by the Ali Javey lab in 2015 showed how different semiconductors were capable of emitting light, but they were unable to create a functioning light-emitting device. more |
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Knitting electronics with yarn batteries The group twisted carbon nanotube fibers into a yarn, then coated one piece of yarn with zinc to form an anode, and another with magnesium oxide to form a cathode. These two pieces were then twisted like a double helix and coated with a polyacrylamide electrolyte and encased in silicone. more |
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New conductive coating may unlock biometric and wearable technology of the future A team of researchers from the College of Engineering at Texas A&M University have developed a mechanically robust conductive coating that can maintain performance under heavy stretching and bending. Stretchable, bendable and foldable electronics are crucial for the development of emerging technologies like adaptive displays, artificial skin, and biometric and wearable devices. This presents a unique challenge of balancing electronic performance and mechanical flexibility. The difficulty lies in finding a material that can withstand a wide array of deformations, like stretching, bending and twisting, all while maintaining electrical conductivity. Adding to the challenge is the need for this conductivity to be engineered into a variety of different surfaces, such as cloth, fiber, glass or plastic. more |
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Conductive Textiles Industry: Innovation in the
textile industry and Increase In Physical Fitness Activities to
Improve Growth |
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Integral Technologies Announces ElectriPlast® Conductive Long Fiber Licensing Agreement EVANSVILLE, Ind., Feb. 26, 2018 /PRNewswire/ -- Integral Technologies Inc. (OTC-PK: ITKG) today announced it has partnered with PolyOne Corp. to commercialize its patented, long fiber conductive ElectriPlast® material for electromagnetic and radio-frequency (EMI/RFI) shielding applications. PolyOne licenses conductive long fiber technology for driver assist devices - CompositesWorld |
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"Atom-Thick" Fibers Will Lead To Amazingly Light Phones, All thanks to atomic "sewing." Mixing and matching two seemingly distinct components has led to some of humanity’s greatest inventions. Reinforcing concrete with steel made skyscrapers possible. Stitching together the atoms of various substances has led to composite materials, like carbon fiber and fiberglass, that are used in our phones, cars, and homes. more |
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Flexible, sensor-packed e-skin can be healed when damaged and recycled when no longer needed The next generation of fitness trackers and health monitors may not be little boxes we wear around our necks or on our wrists, they could be flexible wearables or temporary tattoos. But when such devices get damaged, they'll need to be replaced. And when they're no longer needed, they'll end up on the growing mountain of e-waste. Researchers from the University of Colorado Boulder have developed an electronic skin embedded with a host of sensors that can be bent and twisted to custom fit its owner. And if it gets damaged, the e-skin can be healed, and it can be completely recycled at the end of its useful life. link |
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Japanese researchers develop ultrathin, highly elastic skin display A new ultrathin elastic display that fits snugly on the skin can show the moving waveform of an electrocardiogram recorded by a breathable, on-skin electrode sensor. Combined with a wireless communication module, this integrated biomedical sensor system, called "skin electronics," can transmit biometric data to the cloud. more |
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Method Developed for Handmade Nanotubes that Can be
Made in One Hour...Watch
the Video THIS
IS BIG |
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Adidas Sneakers = Free Pass on Berlin Subways
EXCITING DEVELOPMENT in the world of not just
conductive fibers, but smart fibers--where fibers have embedded electronics |
More news at |
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Highly Conductive, Light Weight, Robust, Corrosion-Resistant, Scalable, All-Fiber Based Current Collectors for Aqueous Acidic Batteries Here, a carbon nanotube (CNT)–cellulose nanofiber (CNF) all-fiber composite is developed that takes advantage of the high conductivity of CNT while achieving high mechanical strength through the interaction between CNT and CNF. By optimizing the CNT/CNF weight ratio, this all-fiber current collector can be made very thin while maintaining high conductivity (˜700 S cm-1) and strength (>60 MPa), making it an ideal replacement for heavy metal current collectors in aqueous battery systems. more |
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Facile Fabrication of Electrically Conductive Low density polyethylene/Carbon Fiber Tubes for Novel Smart Materials via Multi-axial Orientation Electromechanical sensors are indispensable components in functional devices and robotics application. However, the fabrication of the sensors still maintain a challenging issue that high percolation threshold and easy failure of conductive network are derived from uniaxial orientation of conductive fillers in practical melt processing. Herein, we reported a facile fabrication method to prepare multi-axial low density polyethylene (LDPE) /carbon fibers (CFs) tube with bidirectional controllable electrical conductivity and sensitive strain-responsive performance via rotation extrusion technology. more |
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Reconstituted silk can be several times stronger than the natural fiber and made in different forms When it comes to concocting the complex mix of molecules that makes up fibers of natural silk, nature beats human engineering hands down. Despite efforts to synthesize the material, artificial varieties still cannot match the natural fiber's strength. But by starting with silk produced by silkworms, breaking it down chemically, and then reassembling it, engineers have found they can make a material that is more than twice as stiff as its natural counterpart and can be shaped into complex structures such as meshes and lattices. more |
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Wireless electric bandage prevents infection Electric bandages were first announced in 2009. Now OSU has a study which builds on Sen’s 2014 research with a wireless electroceutical dressing (WED) that uses silver and zinc printed on fabric in a geometric pattern. When moistened using bodily fluids or a hydrogel, WED generates a weak electric field without any external power supply. WED can be used like any other disposable dressing. “This wireless electric dressing is FDA-cleared and already in clinical use. But we need to learn more about its underlying mechanisms to enable optimal use," Sen says. the story |
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Tods Aerospace finalist for materials innovation award UK-based Tods Aerospace has collaborated with Technical Fibre Products (TFP) to develop a nonwoven veil for static dissipation applications. The innovation was developed to overcome the limitations of current state-of-the-art products available in the market and is tailored for composite applications in commercial and military aircraft fuel systems. The resulting technology, a nonwoven veil material, comes from an industry collaboration between Tods Aerospace and Technical Fibre Products (TFP, Kendal, Cumbria, UK). “Electrostatic dissipation is a requirement for nearly all glass-based composite materials used in fuel systems for modern composite-wing aircraft,” says Sean Cooper, materials and manufacturing development manager for Tods Aerospace. “Low-level electrical conductivities are required to prevent a buildup of static charge in the structure and prevent the propagation of electrical effects through the fuel system during an external lightning strike. This process of electrostatic management is an absolute necessity to ensure the safe operation of the aircraft.” more |
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Nanotubes make flexible antennas lighter than copper Carbon nanotube fibers configured as wireless antennas can work as well as copper ones but weigh 20 times less, researchers report. The antennas may offer practical advantages for aerospace applications and wearable electronics where weight and flexibility are factors. more also longer article here with a downloadable report |
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Something to Ponder: (from the editor) Wearable technology...Can we repurpose waste or will be contributing to more of it? This is the question we're asking in smart textiles and conductive fibers. Good topic for future trade shows /symposia. Read the Sage Article here |
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New Paper-Based Flexible Supercapacitor for Powering Wearable Devices Researchers from the U.S. and Korea used a simple layer-by-layer coating technique in order to develop a paper-based flexible supercapacitor capable of being used to help power wearable devices. The device uses metallic nanoparticles for coating cellulose fibers in the paper, developing supercapacitor electrodes with high energy and power densities - and the finest performance until now in a textile-based supercapacitor. more |
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Electro Conductive Fiber Market Forecast Including Growth Factors, Types And Application By Regional Geography 2017 The “Electro Conductive Fiber Market” Report offers an inclusive and decision-making overview, including definitions, classifications and its applications. The Electro Conductive Fiber market is anticipated to reflect a positive growth trend in forthcoming years. The essential driving forces behind the growth and popularity of Electro Conductive Fiber market is analysed detailed in this report. More |
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Another use for conductive fibers: The Next Generation Of Smart Bandage "Smart bandage technology is something I’ve touched on a few times. Most of the time, the technology has involved being able to monitor the health of a wound without ‘undressing’ the bandage. Some take on a more active role however, such as administering insulin to manage blood glucose levels." more |
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Researchers Combine Carbon Nanotubes and Nanocellulose to 3D Print Conductive Microfibers D printing technology can only go as far as the different materials that are able to be printed&ldots;but from metal and plastic to sand and even food, I don’t think we have to worry about running out of possible 3D printing materials. Nanofibrillated cellulose (nanocellulose or NFC), a novel biomaterial with multiple industrial and scientific uses, is a protein that’s been used in wound care, and carbon nanotubes (CNTs), which are small tubes of carbon created on the nanoscale, have applications in industrial safety. Other than being 3D printable, what do these materials have in common? Engineers at the University of Maryland (UMD) have answered that question, by combining CNTs and NFC to 3D print strong, conductive microfibers. More |
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New VOLT Smart Yarns Revolutionizes Conductive Yarn Marketplace Global manufacturing leader of high-tech, innovative textiles, Supreme Corporation, introduces VOLT Smart Yarns, a revolutionary and highly conductive yarn for tomorrow’s advanced smart fabrics. Capable of previously unattainable high levels of conductivity on the order of 1.9 Ohms per meter, each VOLT Smart Yarn contains up to four wires the diameter of a human hair. Engineered for use with commercial sewing machines, VOLT Smart Yarns can be woven or knitted into fabrics that heat, control switches and volume, interact with wireless technology and that can become sensors for impact and touch. more |
Consider CFMC MEMBERSHIP CFMC is built around three core constituencies: (1) Manufacturers, (2) Academic and Research and Development members, and (3) Application users or customers of conductive fibers. We offer three levels of membership to accommodate these constituencies: active, associate, and allied. Isn't it time you joined? Contact us for Membership Information
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A flexible and highly sensitive capacitive pressure sensor based on conductive fibers with a microporous dielectric for wearable electronics In this study, a flexible and highly sensitive capacitive pressure sensor has been fabricated by coating a microporous polydimethylsiloxane (PDMS) elastomeric dielectric onto conductive fibers. Conductive fibers were prepared by depositing silver nanoparticles (AgNPs) in poly(styrene-block-butadiene-styrene) (SBS) polymer on the surface of Twaron fibers. more |
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Graphene and CNTs: Commercialization after the hype Graphene and CNT applications within the advanced composites sector are still at a relatively early stage of the commercialization process, but as the availability of materials or dispersions of consistent quality has increased, a number of composite materials and components are starting to incorporate these nanomaterials. more |
Vesti is a wholly-owned subsidiary of Epinicion Technologies, LLC
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Wearable sensors reach their first billion-dollar year, with growth coming in three waves By Mr James Hayward, Senior Technology Analyst, IDTechEx www.IDTechEx.com IDTechEx predict that 2017 will be the first billion dollar year for wearable sensors. These critical components are central to the core value proposition in many wearable devices. The "Wearable Sensors 2018-2028: Technologies, Markets & Players" report includes IDTechEx's latest research and forecasts on this topic, collating over 3 years of work to provide a thorough characterisation and outlook for each type of sensor used in wearable products today. Despite sales volumes from wearable products continuing to grow, creeping commoditisation squeezes margins, with hardware sales being particularly vulnerable. This has led to some consolidation in the industry, with several prominent failures and exits, and challenging time even amongst market leaders in each sector. As hardware margins are squeezed, business models are changing to increasingly focus on the valuable data generated once a device is worn. Sensors are responsible for the collection and quality of that data, so understanding the capabilities and limitations of different sensor platforms is critical to understanding the progress of the industry as a whole. In the report, IDTechEx address 21 different types of wearable sensor across 9 different categories as follows: Inertial Measurement Units (IMUs), optical sensors, electrodes, force/pressure/stretch sensors, temperature sensors, microphones, GPS, chemical & gas sensors & others. Hundreds of examples from throughout the report cover a breadth of technology readiness, ranging from long-established industries to early proof-of-concepts. The report contains information about the activities of over 115 different companies, with primary content (including interviews, exhibition or site visits by the authors) to more than 80 different companies, large and small. IDTechEx describe wearable sensors in three waves. The first wave includes sensors that have been incorporated in wearable for many years, often being originally developed for wearable products decades ago, and existing as mature industries today. A second wave of wearable sensors came following huge technology investment in smartphones. Many of the sensors from smartphones could be easily adapted for use in wearable products; they could be made-wearable. Finally, as wearable technology hype and investment peaked, many organisations identified many sensor types that could be developed specifically with wearable products in mind. These made-for-wearable sensors often remain in the commercial evaluation or relatively early commercial sales today, but some examples are already becoming significant success stories. Billions of wearable electronic products are already sold each year today. Many have already experienced significant hardware commoditisation, with tough competition driving prices down. Even as wearable devices become more advanced, introducing more sensors and better components to enhance value propositions, lessons of history tell us that hardware will always be prone to commoditisation. As this happens the role of sensors only becomes more important; with hardware prices being constantly squeezed, increasing proportions of the value that companies can capture from products will be from the data that the products can generate. The key hardware component for capturing this data is the sensors, so understanding the development and prospects of sensors today is critical to predicting the potential for this entire industry in the future. "Wearable Sensors 2018-2028: Technologies, Markets & Players" is written to address the needs of any company or individual looking to gain a clearer, independent perspective on the outlook for various types of wearable sensor. The report answers detailed questions about technology, markets and industry trends, and supported by years of primary research investment collated and distilled within. |
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New development- Electricity from Yarns Highly twisted coiled carbon nanotube yarns termed “twistron,” generate electricity efficiently. A team of international scientists from the United States, South Korea and China led by researchers at The University of Texas-Dallas (UT Dallas) and Hanyang University, South Korea have reported in Science magazine that these harvester yarns in electrochemical environment can transform mechanical energy to electricity without any external voltage source, in other words without the need of external batteries. link |
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Three-Dimensional Highly Stretchable Conductors from Elastic Fiber Mat with Conductive Polymer Coating The manufacture of stretchable conductors with well-reserved electrical performance under large-degree deformations via scalable processes remains of great importance. In this work, a highly stretchable 3D conductive framework consisted of polyurethane fiber mat (PUF) and poly(3,4-ethylenedioxythiophene) (PEDOT) is reported through facile approaches, electrospinning and in situ interfacial polymerization, which was then backfilled with poly(dimethylsiloxane) to obtain 3D conductors. The excellent stretchability of the 3D conductive network imparted the as-prepared electrode superior mechanical durability. What’s more, the applied strains can be effectively accommodated by the arrangement and orientation of the fibers resulting in relatively stable electrical performance with only 20% increased resistance at 100% stretching. Meanwhile, the resistance of the conductor could keep constant during 2000 times of bending and showed slightly increase during 100 times of 50% stretching. The potential in the applications of large-area stretchable electrodes were demonstrated by the construction of LED arrays with the PUF based conductors as electrical connections. link |
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Touch-Sensitive Fibers Eyed for Use in Wearable Devices |
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Could Bacteria-Coated Nanofiber Electrodes be Key to Cleaning Polluted Water? Researchers from Cornell University have recently discovered a cost-effective and unique method of cleaning wastewater. Bioelectrochemical engineers and material scientists made nano fiber electrodes from electro-spun carbon then covered them in PEDOT, a conductive polymer. This coating allowed a certain type of bacteria, *Geobacter sulfurreducens, to be applied electrically. The entire process takes several hours until it forms an easily visible sheet of nanofibers. (more)
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Vesti is a wholly-owned subsidiary of Epinicion Technologies, LLC
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Wearable Touch Sensors: Stretchable Conductive Fibers |
COLLEGE OF TEXTILES &
DEPARTMENT OF CHEMICAL AND BIOMOLECULAR ENGINEERING |
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Making wires of polymers chains Researchers model new route to molecular wires suitable for use in miniature electronics read the story |
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PAPER could be the future of electronics:
Researchers reveal radical low cost printing method that could
revolutionize flexible devices |
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Fed grant backs nanofiber development: Rice University joins Department of Energy 'Next Generation Machines' initiative Rice University scientists who developed conductive fibers made entirely of carbon nanotubes will enhance their invention with the aid of a grant from the Department of Energy. Read the release here |
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A Better Material for Flexible Electronics Recently a group of researchers at the University of Illinois College of Engineering have developed a type of textile made of thin carbon nanotubes (CNT) that is highly conductive and has a toughness that is about 50 times higher that current copper films used nowadays. Carbon nanotubes are tiny cylinders of graphene with a diameter of few nanometers (nm) – this is about 1,000 times thinner than a human hair. Even with size, CNT are much stronger that steel of carbon fiber, more conductive than copper and lighter than aluminum. However, to assemble and weaving nanotubes to create a particular structure is very difficult given their sizes and the difficulty in controlling their geometry. more |
Vesti is a wholly-owned subsidiary of Epinicion Technologies, LLC
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Touch-sensitive fibers put new twist on controlling electronic devices We're used to touchscreens, but now researchers have created new, touch-sensitive fibers that can be used to interact with electronic devices. The microscopic fibers are soft, stretchable and capable of detecting touch, strain and twisting, all of which could lead to new sorts of wearable devices and sensing applications. The fibers created at North Carolina State University are made of a extremely thin strands of a tube-like polymer filled with a liquid metal alloy of eutectic gallium and indium (EGaIn). The strands are a few hundred microns in diameter, or just a little thicker than a human hair. more |
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Circuitex® Conductive Technology Advances Design Flexibility in Smart Apparel SCRANTON, Pa., Feb. 3, 2017 /PRNewswire/ -- Noble Biomaterials, Inc., a global leader in conductive solutions for smart textiles applications, has collaborated with Bemis Associates to develop a seamless, conductive advanced material that allows for simple and durable integration of electronics into apparel. This fully-bonded, conductive material is engineered with Noble's Circuitex® technology and provides for the detection, transmission and protection of electronic signals in a soft and flexible format. Its unique construction provides designers with complete freedom to design smart garments with integrated stretch and durability using Bemis Sewfree® Bonding. more |
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How researchers created twisted semiconductors for 3D projection Editor comment: We've long maintained that we expect entire circuits to be embedded in a fiber, just like a highway has gas stations, traffic lights, etc. enroute. A team of chemical engineers guided the attachment of small semiconductor nanoparticles to each other by learning from nature’s very own twisted structures: DNA and proteins Researchers at the University of Michigan and the Ben-Gurion University of the Negev in Israel teamed up to discover a way to mass-produce spiral semiconductors that can produce 3D images. In the future, this could mean that smartphones and other consumer electronics devices could be capable of producing 3D images. more |
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Are smart textiles ready for the real world? Over the past decade, there has been a slow but sure evolution of wearable electronics, including smart textiles, designed primarily to monitor body functions and communicate with the Internet of Things. But a great many were not especially wearable, and some never made it out of the lab. The tide, however, seems to be turning. Read more |
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Conductive Yarn Industry Report introduced a Market Segment, Product Types, with Sales, Revenue, Price, Market Share and Growth, focuses on top players in these regions/countries, Size, Share, Demand, Analysis, Manufacturers, Type and Application, Forecast 2016 to 2021 Global Conductive Yarn Industry 2016 is an analytical research report that delves into the dynamics of the global Conductive Yarn industry.It presents an executive-level blueprint of the market with key focus on its operations in globe. In a lucid chapter-wise format, the report presents the historical statistics of the Conductive Yarn market in addition to studying the competitive landscape. The purpose of this study is to present a comprehensive overview of the market for industry participants. Key findings of this report will help companies operating in the Conductive Yarn market to identify the opportunities that they can capitalize on to propel growth. The study analyzes the Conductive Yarn industry in detail. To begin with, it enumerates the primary market operations, evaluating the nature and specific characteristics of products and services it provides. In the following chapters, the study classifies the Conductive Yarn market in terms of its varied product types, applications, network of supply chain, and geography. Based on the market segmentation, the report analyzes the competitive landscape of the Conductive Yarn market and lays down the development status of key regions in globally. MORE |
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Knitted muscle could power the supersuits of the future Knitting isn’t just for grandmas: Scientists are using the process to make artificial muscle that moves more like we do. In a study published today in Science Advances, researchers created a textile actuator, or textuator—a new kind of smart fabric that can control movement. They coated cellulose (an organic compound found in plant cell walls that makes up everything from plastic to cotton fibers) “yarn” with a special polymer called polypyrrole that shifts and stretches in response to electricity. The team found that woven smart yarn was able to withstand great force, whereas a knitted pattern was able to stretch. more
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Self-healing, stretchable, transparent and
conductive ionic
conductor
THIS IS BIG
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Progress for solar powered smart textiles
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Research: self-charging fibres for smart textiles
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Medical textiles: what’s next?
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DuPont Microcircuit Materials Introduces Pure
Copper Conductive Ink Also, see article about stretchable inks: here |
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IPC Meeting on Standards for Textiles and Stretchable/Wearable Printed Electronics was held in late December. Contact us for a report of that meeting. |
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Bendy artificial muscle is made of pure nylon, still stronger than you An MIT breakthrough allows engineers to create artificial muscles that bend by simply heating nylon fibers. more Thisit is an exciting breakthrough, and the editor wonders if artificial nerves can't also be created with conducitve fibers. |
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Textile Generates Power from Sun and Motion |
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Intel is laying off a major portion of its wearables group Intel is denying that the company is stepping back from wearables, though has not directly commented on the layoff news. Here is the company’s statement in full (more) |
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Graphene-fed silkworms produce super-strong, electrically conductive silk Here's an unsual story: Scientists may have found another use for silk. Previously, the natural protein fiber was predominantly used in the textile industry. Researchers have now observed that the properties of silk can be manipulated if silkworm larvae are fed a new-age diet consisting of graphene and carbon nanotubes. Read more |
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Rice University Researchers Find Ways to Improve Graphene Nanoribbons For decades, carbon fiber has been considered as a pillar of strength in the field of materials manufacturing. Rice University scientists are now finding ways to improve these carbon fibers to enhance its properties. The scientists discovered that the polymer chains that develop a common carbon fiber are susceptible to misalignment during the manufacturing process. This misalignment is considered as a defect that the researchers compared to a faulty zipper that leads to weakening of the product. (Picture and more) |
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Here's a Patent for Metalized Coating of Optical Fibers Interesting patent, details. By the way, one of our members might have a simpler method. Give us a call. |
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Highly Conductive and Flexible Fiber for Textile Electronics Obtained by Extremely Low-Temperature Atomic Layer Deposition of Pt Sparse details at: link |
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Scientists Use Bacteria to Create Super-Thin Electrical Wires The Office of Naval Research (ONR) has sponsored a team of scientists that has genetically modified a common soil bacteria and used it create electrical wires-- thousands of times thinner than a human hair-- that can conduct electricity. Shrinking electronics is not a new concept. As electronic devices expand function and applications, researchers seek technology that is smaller, faster and more powerful than ever before. With that research, advances in nanotechnology that allow industry experts to manufacture materials that are only billionths of a meter in thickness, have become possible. more |
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Industry Standards Update! |
Consider CFMC MEMBERSHIP CFMC is built around three core constituencies: (1) Manufacturers, (2) Academic and Research and Development members, and (3) Application users or customers of conductive fibers. We offer three levels of membership to accommodate these constituencies: active, associate, and allied. Isn't it time you joined? Contact us for Membership Information |
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A Chemist and a Designer Team Up to Weave Solar Panels Into Fabric
For years, fabric designer Marianne Fairbanks made
solar-charged handbags. Her company, Noon Solar, was geared toward
the high-end, urban-based fashion market and, at its peak, was
selling in 30 stores in the United States and Canada. While Noon
Solar closed its doors in 2010, Fairbanks, who joined the University
of Wisconsin-Madison in 2014 as an assistant professor in the school
of human ecology, was still intrigued with the concept of solar design. |
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Conductive Composites opens second fiber coating line
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LG Innotek unveils flexible textile pressure sensors LG Innotek today announced a development of new concept textile flexible pressure sensors. This sensor senses pressure from the entire surface of the sensor and it is even bendable. Read more |
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"Smart Shirt" Keeps IndyCar Racer Kanaan on Track Another example of a smart shirt in action--using conductive fibers, of course. Read the Dalas story here. |
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Microsoft Mood Shirt Reacts To and Influences Feelings. Conductive fibers and smart fabrics are increasing in importance every day. Read the story here. |
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Hyper-Giant Conductivity Observed at Room Temperature Berlin/IDTechEx: Hyper-Giant Conductivity Observed at Room Temperature in metal/carbon compouind materials using 3-D lithoography with x,y, and t beam control for this Koops-GranMat®, process. Koops-GranMat® can replace cooled superconducting materials in present appications and will revolutionaze electronics, THz switching, photonics, and energy transport. For information contact Hans W. P. Koops in Ober-Ramstadt, Germany hans.koops@t-online.de Dr. Koops and your editor spent considerable time toegther in Berlin, and we feel this process might be truly revolutionary. |
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U.S. Consortium Commits $317 Million for Advanced Textiles Development A newly-announced private/public collaboration will invest $317 million towards developing the next generation of textile innovations in the United States. According to a statement from the U.S. Department of Defense, a consortium of 89 manufacturers, universities, industry and non-profits organized by the Massachusetts Institute of Technology will form the New Revolutionary Fibers and Textiles Manufacturing Innovation Hub. The consortium – operating as Advanced Functional Fabrics of America – will be leading the research work, under the management of the U.S. Army. The U.S. Department of Defense will invest $75 million in the program, which will be combined with nearly $250 million in contributions from non-federal entities to fund the next generation fiber-textile chain research. Leading technology firms such as Bose, Intel and many innovative textile companies are involved in the effort. The new revolutionary fiber institute is the eighth manufacturing innovation hub initiative by President Obama administered through the U.S. Department of Defense. These institutes are aimed at developing high-tech sectors in the U.S. to enable them to be competitive, especially in the manufacturing sector. citation |
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Hemp waste fibers form basis of supercapacitor more conductive than graphene Comprised of a lone hexagonal honeycomb lattice layer of tightly packed carbon atoms, graphene is one of the strongest, lightest, and most conductive compounds ever discovered. Bottom line, it’s an extraordinary composite. However, a scientist from New York’s Clarkson University says he’s found a way to manufacture hemp waste into a material “better than graphene.” Moreover, the scientist — known to his peers as Dr. David Mitlin — says creating this graphene-like hemp material costs but a minuscule fraction of what it takes to produce graphene. more |
Consider CFMC MEMBERSHIP CFMC is built around three core constituencies: (1) Manufacturers, (2) Academic and Research and Development members, and (3) Application users or customers of conductive fibers. We offer three levels of membership to accommodate these constituencies: active, associate, and allied. Isn't it time you joined? Contact us for Membership Information |
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Textile Electronics Standards Workshop to be Held at NC State University A workshop that will be held at the campus of North Carolina State University on the topic of standards for wearable devices, to be held March 8th and 9th. One entire day of the workshop will be focused on standards for textile electronics. Here is a link to the workshop....http://www.assistworkshops.com/wearable-standards/ . |
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The Iron Stepping Stones To Better Wearable Tech
Without Semiconductors
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New Type of Nanowires, Built with Natural Gas Heating A team of Korean researchers, affiliated with UNIST has recently pioneered in developing a new simple nanowire manufacturing technique that uses self-catalytic growth process assisted by thermal decomposition of natural gas. According to the research team, this method is simple, reproducible, size-controllable, and cost-effective in that lithium-ion batteries could also benefit from it. read more |
CFMC MEMBERSHIP CFMC is built around three core constituencies: (1) Manufacturers, (2) Academic and Research and Development members, and (3) Application users or customers of conductive fibers. We offer three levels of membership to accommodate these constituencies: active, associate, and allied. Isn't it time you joined? Contact us for Membership Information |
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Fiber Optics Transmit Data and Power Over Same Cable In the latest attempt to confront the growing power demands of wireless communications, a research team from the University of Electro-Communications in Japan has invented a fiber optic system that transmits both data and power over the same cable. The research team, led by Motoharu Matsuura, has shown that the new system is capable of sending up to 60 watts over a distance of 300 meters. The researchers suggest that the fiber optic cable would be ideal for the growing infrastructure behind small cells—low-power, short-range radio terminals that backhaul data from the edge of a wireless network. read more |
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Breakthrough enables ultra fast transport of electrical charges in polymers A research team at Umeå University has showed, for the first time, that a very efficient vertical charge transport in semiconducting polymers is possible by controlled chain and crystallite orientation. These pioneering results, which enhance charge transport in polymers by more than 1,000 times, have implications for organic opto-electronic devices and were recently published in the journal Advanced Materials. more |
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Micro-Coax Announces Price Reduction on ARACON
Fibers and Braids
Micro-Coax announced today that the company has
significantly reduced prices, as much as forty percent, on ARACON
fibers and braids. more
This is major news in this marketplace! |
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Nano-Coating makes Coaxial Cables Lighter: Rice University scientists replace metal with carbon nanotubes for aerospace use Common coaxial cables could be made 50 percent lighter with a new nanotube-based outer conductor developed by Rice University scientists. The Rice lab of Professor Matteo Pasquali has developed a coating that could replace the tin-coated copper braid that transmits the signal and shields the cable from electromagnetic interference. The metal braid is the heaviest component in modern coaxial data cables.- See more This could be a game changer if the coatings are robust. |
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500 LEDs Bring an Interactive Textile to Life Fabric can be so much more than just the materials we use to keep ourselves clothed and warm. Fabric can be alive. And 29-year-old Swedish textile designer Malin Bobeck is an artist who breathes life into fabric. We last covered her work while she was still a student at the Swedish School of Textiles, weaving glowing fabrics with optical fibers. The story This is really exciting! |
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Shocking! 'Electric Eel' Fibers Could Power Wearable Tech Stretchy fibers that mimic electric eels could be woven into clothing to power wearable technology one day, new research suggests. In experiments, these flexible fibers produced enough power to run electronic lights and watches. Read more... |
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Conductive Silicon is Used to Make Flexible Circuits |
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Can Carbon Nanotubes Replace Copper? This is the BIG question! Now, a new technology, carbon nanotubes (CNTs), is emerging that could someday become a lightweight alternative to copper wire or conductive shielding in automotive, aerospace and defense applications. A carbon nanotube is composed of a single layer of carbon atoms in a cylindrical configuration. The tubes can be single-walled or multiwalled. CNTs have been constructed with a length-to-diameter ratio of up to 132,000,000-to-1. read the article |
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Manufacturing Wearable Computers with 3D-Printed Textiles |
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APPARATUS AND METHOD FOR USING CONDUCTIVE ADHESIVE FIBERS AS A DATA INTERFACE United States Patent Application 20150380843 Abstract: An apparatus and method for using conductive adhesive fibers as a data interface are disclosed. A particular embodiment includes: a first array of conductive adhesive fiber fastener pads configured for attachment to a first item; a second array of conductive adhesive fiber fastener pads configured for attachment to a second item, each pad of the first and second array being fabricated with a hook or loop removable fastener, each removable fastener being electrically conductive, the first array of pads being arranged to align with the second array of pads to create a plurality of independent electrical connections when the first item is removably attached to the second item, the plurality of independent electrical connections establishing a data interface connection between the first item and the second item. link |
ARACON: The strength of KEVLAR® brand fiber with the conductivity of metal www.araconfiber.com |
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LiU researchers create electronic plants Using semi-conductive polymers, both analog and digital electronic circuits can be created inside living flowers, bushes and trees, as researchers at Linköping University Laboratory for Organic Electronics have shown. The results are being published in Science Advances. With the help of the channels that distribute water and nutrients in plants, the research group at the Laboratory for Organic Electronics, under the leadership of Professor Magnus Berggren, have built the key components of electronic circuits. In an article in Science Advances, they show how roses can produce both analog and digital electronic circuits, which over the long term could be used, for example, to regulate the plant’s physiology. more Editor's comments: Now the big question is whether we, as a species, will have the wisdom to use this for good or for evil. |
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Bonded wire suits medical apps |
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Patent pending conductive fiber/textile transistor available for licensing
The Italian National Research Council announces a
patent pending technology available for licensing.
The proposed invention relates to a conductive fiber material
that has been obtained starting from a textile fiber, that can be
natural or artificial. Such fiber can be modified by
functionalization with metal nanoparticles and by treatment with a
conductive polymer. Both these treatments contribute to make
this fiber conductive at the level of a metal wire, thus enabling the
use of these fibers for making electrical connections in textile forms.
In addition, starting from this fiber, also the concept
of textile transistor has been developed, thus providing the
basic block of any complex electronic circuit in textile
form. PFor information, contact: Paolo
Foà. Managing partner, N&G Consulting, Technology Transfer
and Licensing; Corso Di Porta Vittoria, 9; 20122 Milano - Italy
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U.S. DEPARTMENT OF COMMERCE AND THE INDUSTRIAL FABRICS ASSOCIATION INTERNATIONAL TO HOST FIRST-EVER SMART FABRICS SUMMIT read details on our website, here: http://www.cfibermfg.com/releases |
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Sensing a Change: Q&A with Deepak Prakash, Global Director of Marketing for Digital Health at Vancive Medical Technologies As the Council has discussed previously, this is an area ripe for innovation and inclusion of conductive fibers. Read Deepak's article here. |
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Beki-Shield® stainless steel fibers for conductive plastics Beki-Shield® is a stainless steel filler material used in plastic compounds to provide electrical conductive properties. They can be used as a master-batch and have been designed for easy dispersion into the polymer matrix for both injection molding (dry blend) and for compounding. Beki-Shield® is also available in rovings. information |
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Flexible sensors come to market thanks to tens of millions of investment Large investments have been made to enable flexible, thin sensors rather than rigid sensors. $75 million was recently awarded by the US Department of Defense to establish a new Manufacturing Innovation Institute (MII) for flexible hybrid electronics in San Jose, California. Under the acronym FHE MII, this new entity will follow a hub and node approach managed by the FlexTech Alliance. more |
ARACON: The strength of KEVLAR® brand fiber with the conductivity of metal www.araconfiber.com |
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Functional catalyst for alternative fuel source by depositing nanosheets on a flexible carbon cloth Researchers have explored molybdenum-based catalysts, notably MoS2, as a potential various electrocatalyst for hydrogen evolution reactions. Research of MoS2 nanoparticles show that catalysis happens on edges or at defect websites. Because of this controlling the MoS2 morphology might result in controlling its catalytic exercise. Nevertheless, there are nonetheless a number of obstacles to creating MoS2 a possible industrial materials. more |
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New nanomaterial maintains conductivity in 3-D
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New Layering Process Brings Graphene's 2D
Properties to the 3D World |
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The Economist
magazine publishes overview article about conductive fibers and your
trade association. |
CFMC MEMBERSHIP CFMC is built around three core constituencies: (1) Manufacturers, (2) Academic and Research and Development members, and (3) Application users or customers of conductive fibers. We offer three levels of membership to accommodate these constituencies: active, associate, and allied. Isn't it time you joined? Contact us for Membership Information |
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