Imagine your car starting the moment you get in because it recognizes the jacket you’re wearing. Consider the value of a hospital gown that continuously measures and transmits a patient’s vital signs. These are just two applications made possible by a new “body area network”-enabling fabric invented by engineers at the University of California, Irvine. In a paper published recently in Nature Electronics "Textile-integrated metamaterials for near-field multibody area networks", researchers in UCI’s Henry Samueli School of Engineering detail how they integrated advanced metamaterials into flexible textiles to create a system capable of battery-free communication between articles of clothing and nearby devices. “If you’ve held your smartphone or charge card close to a reader to pay for a purchase, you have taken advantage of near-field signaling technologies. Our fabrics work on the same principle, but we’ve extended the range significantly,” said co-author Peter Tseng, UCI assistant professor of electrical engineering & computer science. “This means you could potentially keep your phone in your pocket, and just by brushing your body against other textiles or readers, power and information can be transferred to and from your device.” Lead author Amirhossein Hajiaghajani, a UCI Ph.D. student in electrical engineering & computer science, said the invention enables wearers to digitally interact with nearby electronic devices and make secure payments with a single touch or swipe of a sleeve. “With our fabric, electronics establish signaling as soon as you hover your clothes over a wireless reader, so you can share information with a simple high-five or handshake,” he said. “You would no longer need to manually unlock your car with a key or separate wireless device, and your body would become the badge to open facility gates.” Tseng likens the technology to a railway that transmits power and signals as it crisscrosses a garment. The system allows new segments to be added readily, and separate pieces of clothing can be paired to “talk” with one another. The near-field communications protocol has enabled the growth in applications such as wireless device charging and powering of battery-free sensors, but a drawback of NFC has been its limited range of only a couple of inches. The UCI researchers extended the signal reach to more than 4 feet using passive magnetic metamaterials based on etched foils of copper and aluminum. The team’s innovation was designed to be highly flexible and tolerant of bodily motion. Because signals travel in the UCI-invented system via magnetic induction – versus the continuous hard-wire connections that had been state-of-the-art in smart fabrics – it’s possible to coordinate separate pieces of clothing. In athletic gear, pants can measure leg movements while communicating with tops that track heart rate and other stats. The applications in medicine are countless, Hajiaghajani said, such as freeing hospital staff from the task of applying numerous patient sensors, as they can all be integrated into metamaterial-equipped gowns. The materials involved in the system are low-cost and easy to fabricate and customize, he noted, and varying lengths and branches of the metamaterial “rails” can be heat-pressed onto wearers’ existing clothing – no need to go out and buy a brand-new high-tech tracksuit. “Our textiles are simple to make and can be integrated with interesting wearable designs,” Hajiaghajani said. “We want to create designs that not only are cool and inexpensive but can reduce the burden that modern electronics can bring to our lives.” For more information, visit: https://news.uci.edu/2021/11/16/uci-invention-lets-people-pay-for-purchases-with-a-high-five/

Epishine and Optiqo have collaborated and this has now resulted in a brand-new version of Optiqo's QlvrBox powered with organic solar cells optimized to harvest indoor lighting that now is available for order worldwide. This version of the QlvrBox enables improved sustainability, monitoring, and quality management of cleaning and facility management services. Optiqo's QlvrBox uses real-time visitor traffic data to alert maintenance technicians when facility areas require service or cleaning, which enables companies to proactively manage and validate cleaning and maintenance events to ensure 100% compliance and, in turn, increase customer satisfaction. The QlvrBox also has an indicator showing the most recent service or cleaning event to ensure the facility’s visitors feel secure. Epishine and Optiqo have cooperated to optimize Optiqo's QlvrBox. QlvrBox currently operates on batteries, enabling the device to be installed independently of the facility’s infrastructure. This feature offers a great benefit when installing the boxes, however, the batteries need to be replaced every 1-3 years. The new version of QlvrBox is developed with Epishine's solution for light energy harvesting, which extends the battery life by the generated power from ambient lighting. This reduces both the number of batteries and the maintenance cost. For more information, visit: https://www.epishine.com/pr/worldwide-launch-of-optiqos-qlvrbox-extended-with-epishines-organic-solar-cells-optimised-to-harvest-indoor-lighting ‍

Nano Ops, Inc. is pleased to host its first webinar on December 2, 2021, @ 1:30 eastern since the launch of FLEX RD and FFx RD800, Fab-in-a-Tool series products. Nano OPS is the world's first manufacturer of purely additive manufacturing tools capable of printing nanoscale features, bringing a nanomanufacturing fab in your lab. The webinar with Dr. Ahmed Busnaina, CTO of Nano OPS, Inc. will discuss an elegant, low-cost, high throughput additive manufacturing technology that can be implemented at a fraction of the capital investment required of any other technology. Join the Q&A to ask all your questions on how you can implement manufacturing solutions for advanced packaging in your organization at a fraction of the cost of conventional technologies or foundry offered services using additive manufacturing of electronics. Register Here https://us02web.zoom.us/webinar/register/8316377774487/WN_xPhegbzSTJC8SpfrOMqaAQ

Speaker: Jurgen van Peer | Company: Nanogate | Date: 11-12 May 2021 | Full Presentation Digital printing has clearly established itself for graphics printing, thanks to the advantages it offers over traditional processes like screen printing. More recently, digital printing started morphing into digital manufacturing and also Printed Electronics is taking advantage of that evolution. In this talk we will review Agfa's digital conductive inks based on nanomaterials, and highlight some features of newly developed inks. In the second part of the talk, Nanogate Netherlands will discuss the application of additive digital manufacturing in motor sport products. Join TechBlick on an annual pass to join all live online conference or online version of onsite conference access library of on-demand talks (600 talks + PDFs) portfolio of expert led masterclass year-round platform https://www.techblick.com/ And do NOT miss our flagship event in Berlin on 17-18 OCT 2023 focused on Reshaping the Future of Electronics. This event attracts 550-600 participants from all the world and offers a superb ambience and dynamic exhibition floor. To learn more visit https://www.techblick.com/electronicsreshaped To see feedback about previous event see https://www.techblick.com/events-agenda

A team of engineers at the University of South Florida has invented a new technology that could forever change the manufacturing of wearable, electronic sensors. They’ve figured out a way to speed up production without having to use polymer binders – the industry standard in printing flexible sensors, which are often used to monitor vital signs in health care settings. Their technology "Corona-Enabled Electrostatic Printing for Ultra-Fast R2R Manufacturing of Binder-Free Multifunctional E-Skins", featured on the cover of the journal ACS Applied Materials & Interfaces, prints electronic skin, or “e-skin,” by using corona discharge to create a strong electric field between binder-free functional powders, such as graphene, and flexible, non-conductive surfaces, such as medical tape. The electrostatic force used in Corona-Enabled Electrostatic Printing enables a multitude of e-skin sensors to be printed within sub-seconds, compared to the 20 minutes it takes with polymer binders and doesn’t require heat. E-skin is a micrometer-thin, pliable technology that can be used to measure things such as strain, temperature, and sound. Ying Zhong, assistant professor of mechanical engineering at USF, and her collaborator, Long Wang at California Polytechnic State University, found that the printing technique has broad applications, such as in health monitoring, prosthetics, and robotics. Unlike with polymer binders, there aren’t sizing limitations, making the technique a strong candidate for the roll-to-roll manufacturing of large flexible sensors, which can greatly reduce production costs. “As a new, advanced manufacturing strategy, Corona-Enabled Electrostatic Printing will potentially transform the cost structure for large-area and high-performance electronics and enable versatile applications of flexible, functional systems,” Zhong said. “The technique can help contribute to maintaining the U.S.’s leadership in advanced manufacturing.” Zhong recently received a $308,928 grant from the National Science Foundation to advance her research, proving the patent-pending ultra-fast manufacturing technique can be used to print materials beyond multifunctional e-skin. For more information: https://www.usf.edu/news/2021/usf-engineers-invent-ultra-fast-manufacturing-technology.aspx

In 2017, Green Bay Packers quarterback Aaron Rodgers broke his right collarbone in a game against the Minnesota Vikings. Typically, it takes about 12 weeks for a collarbone to fully heal, but by mid-December fans and commentators were hoping the three-time MVP might recover early and save a losing season. So did Xudong Wang, a professor of materials science and engineering at the University of Wisconsin–Madison and an expert in creating thin, movement-powered medical devices. “I started wondering if we could provide a new solution to bring athletes back to the field quicker than ever,” Wang says. The researchers published the paper " An implantable and bioresorbable electrostimulation device with its own power supply for the healing of bone fractures with biofeedback" in PNAS. Researchers know that electricity can help speed up bone healing, but “zapping” fractures has never really caught on since it requires surgically implanting and removing electrodes powered by an external source. A major update of that same electrostimulation concept, Wang’s latest invention didn’t come in time to help the 2017 Packers — however, it may help many others by making electrostimulation a much more convenient option to speed up bone healing. His thin, flexible device is self-powered, implantable, and bioresorbable, so once the bone is knitted back together, the device’s components dissolve within the body. Bone is a piezoelectric material, meaning it produces a tiny bit of electricity when placed under strain. These jolts of electricity stimulate factors that promote bone growth and healing, which is why electrostimulation is an effective therapy. While there are external stimulators that create an electric field to accelerate healing indirectly, the ideal solution is stimulating the bone directly. Putting the device inside the body, however, has unique requirements — not the least of which is powering it, according to Wang. “The ideal case is to have the device be self-generating, which was something that didn’t exist before this,” he says. To create the new fracture electrostimulation device, or FED, Wang and his team started with a triboelectric nanogenerator, a thin-film device with microstructured surfaces that converts mechanical energy produced by tiny movements into electric power. They coupled the nanogenerator with a pair of electrodes to distribute the electric field to the bone. They built these ultrathin, biodegradable, and bioresorbable components on a substrate of poly(lactic-co-glycolic acid), a commonly used FDA-approved biocompatible polymer. The researchers’ initial tests confirmed that small movements of the device did indeed create an electrical stimulation of about 4 volts, which it could sustain for over six weeks. They then tested the device on rats. The animals implanted with the device completely recovered from a tibia fracture in about six weeks, much more quickly than animals in a control group. The mineral density and flexural strength of the healed bones also reached the same level as healthy bones in the animals that received the electrostimulation. After the treatment, the devices degraded and absorbed into the rats’ bodies with no complications and no need for surgical removal. Wang says that it’s possible to fine-tune how long the stimulator will last within the body — from weeks to months — by tweaking the properties of the bioresorbable material coating the device. Eventually, Wang would like to scale up the fracture electrostimulation device so it will work in humans. But for these self-powered devices, the energy source can be a factor. “Typically, when someone has a broken bone, they need to restrict their movement,” he explains. In other words, someone wearing a cast might not produce enough mechanical energy to power the triboelectric nanogenerator. “The way a rat move provides constant stimulation for the device, but for a broken bone in a human that can’t be moved, that’s an issue,” says Wang. However, the human body provides virtually endless sources of movement that could power the fracture electrostimulation device if the broken bone must remain immobile. “We may need the device to respond to other types of internal mechanical sources, like blood pressure changes,” says Wang, who’s already looking to the FED’s future. “It will be very interesting and impactful to address the development from animal to human,” he says. For more information, visit: https://news.wisc.edu/self-powered-implantable-device-stimulates-fast-bone-healing-then-disappears-without-a-trace/

World-class Agenda | Latest Technology Updates | Exclusive Networking Sessions Topics Covered | Perovskites | Organics | CIGS | Tandem | R2R | Inkjet | Printed | Thin Film Deposition Scale-Up | Stability | Thin Film Barriers | Material Innovations | Substrates. 1-2 December 2021 | 1pm - 9pm CET Add to your Calendar iCalendar (majority of email clients) Google Calendar | Microsoft Outlook Calendar | Office 365 Calendar | Yahoo Calendar TechBlick's sixth Live event on 1 -2 December 2021 will cover The Future of Photovoltaics and as always we have a superb speaker line-up, interactive exhibitor booths for you to visit and exclusive networking sessions. TechBlick is a year round event series with over 350+ Analyst picked live online presentations on emerging technologies. With a single Annual Pass you have year long access to our platform where you can join live conferences as well as watch over 250 (and growing) on-demand presentations and participate in Masterclasses by leading industry exerts. You can also network with fellow attendees as well as learn from, and meet our exhibitors. TechBlick will once again be hosting the popular networking sessions in our exclusive lounge. This will be your chance to mix with attendees and meet speakers just as you would at a physical event. If you are not familiar with the lounge, you can try it out here. Why don't you grab a drink and join us for this sociable occasion. Leading Global Speakers Include: Annual Pass With an Annual Pass you can participate in all our upcoming LIVE (online) events, engage with our library of on-demand content, and learn from our industry-led masterclasses. To become an annual member of TechBlick sign up here until 12 November 2021 to save €100, making the pass just €500 per year (apply code Save100Euros at check-out). Alternatively, you can also set up a monthly payment of €50 per month with a minimum contract period of 6 months. To do this, email chris@TechBlick.com Do not take our word for it - read what our members say: Meet and network with over 70 exhibitors Enjoy Your Opportunity to Connect, Learn & Engage With The Emerging Technology Community For a Whole Year

Some people are born with hearing loss, while others acquire it with age, infections, or long-term noise exposures. In many instances, the tiny hairs in the inner ear’s cochlea that allow the brain to recognize electrical pulses as sound are damaged. As a step toward an advanced artificial cochlea, researchers in ACS Nano report a conductive membrane, which translated sound waves into matching electrical signals when implanted inside a model ear, without requiring external power. The paper "Acoustic Core-Shell Resonance Harvester for Application of Artificial Cochlea Based on the Piezo-Triboelectric Effect" is published in ACS NANO. When the hair cells inside the inner ear stop working, there’s no way to reverse the damage. Currently, treatment is limited to hearing aids or cochlear implants. But these devices require external power sources and can have difficulty amplifying speech correctly so that it’s understood by the user. One possible solution is to simulate healthy cochlear hairs, converting noise into the electrical signals processed by the brain as recognizable sounds. To accomplish this, previous researchers have tried self-powered piezoelectric materials, which become charged when they’re compressed by the pressure that accompanies sound waves, and triboelectric materials, which produce friction and static electricity when moved by these waves. However, the devices aren’t easy to make and don’t produce enough signals across the frequencies involved in human speech. So, Yunming Wang and colleagues wanted a simple way to fabricate a material that used both compression and friction for an acoustic sensing device with high efficiency and sensitivity across a broad range of audio frequencies. To create a piezo-triboelectric material, the researchers mixed barium titanate nanoparticles coated with silicon dioxide into a conductive polymer, which they dried into a thin, flexible film. Next, they removed the silicon dioxide shells with an alkaline solution. This step left behind a sponge-like membrane with spaces around the nanoparticles, allowing them to jostle around when hit by sound waves. In tests, the researchers showed that contact between the nanoparticles and polymer increased the membrane’s electrical output by 55% compared to the pristine polymer. When they sandwiched the membrane between two thin metal grids, the acoustic sensing device produced a maximum electrical signal at 170 hertz, a frequency within the range of most adults’ voices. Finally, the researchers implanted the device inside a model ear and played a music file. They recorded the electrical output and converted it into a new audio file, which displayed a strong similarity to the original version. The researchers say their self-powered device is sensitive to the wide acoustic range needed to hear most sounds and voices. For more information, visit: https://www.acs.org/content/acs/en/pressroom/presspacs/2021/acs-presspac-october-27-2021/flexible-device-could-treat-hearing-loss-without-batteries.html

Researchers at North Carolina State University demonstrated a low-cost technique for retrieving nanowires from electronic devices that have reached the end of their utility and then using those nanowires in new devices. The work is a step toward more sustainable electronics. The paper, “Recycling of Nanowire Percolation Network for Sustainable Soft Electronics,” is published in the journal Advanced Electronic Materials. “There is a lot of interest in recycling electronic materials because we want to both reduce electronic waste and maximize the use we get out of rare or costly materials,” says Yuxuan Liu, first author of a paper on the work and a Ph.D. student at NC State. “We’ve demonstrated an approach that allows us to recycle nanowires, and that we think could be extended to other nanomaterials – including nanomaterials containing noble and rare-earth elements.” “Our recycling technique differs from conventional recycling,” says Yong Zhu, corresponding author of the paper and the Andrew A. Adams Distinguished Professor of Mechanical and Aerospace Engineering at NC State. “When you think about recycling a glass bottle, it is completely melted down before being used to create another glass object. In our approach, a silver nanowire network is separated from the rest of the materials in a device. That network is then disassembled into a collection of separate silver nanowires in solution. These nanowires can then be used to create a new network and incorporated into a new sensor or other devices.” The new recycling technique takes into account the entire life cycle of a device. The first step is to design devices using polymers that are soluble in solvents that will not also dissolve the nanowires. Once a device has been used, the polymer matrix containing the silver nanowires is dissolved, leaving behind the nanowire network. The network is then placed in a separate solvent and hit with ultrasound. This disperses the nanowires, separating them out of the network. In a proof-of-concept demonstration, the researchers created a wearable health sensor patch that could be used to track a patient’s temperature and hydration. The sensor consisted of silver nanowire networks embedded in a polymer material. The researchers tested the sensors to ensure that they were fully functional. Once used, a sensor patch is normally discarded. But for their demonstration, the researchers dissolved the polymer in water, removed the nanowire network, broke it down into a collection of individual nanowires, and then used those nanowires to create a brand-new wearable sensor. While there was minor degradation in the properties of the nanowire network after each “life cycle,” the researchers found that the nanowires could be recycled four times without harming the sensor’s performance. After four life cycles, you can improve the performance of the nanowire network by introducing new silver nanowires into the mix. “Using our approach, you get far more use from the nanowires,” Zhu says. “And even after the nanowires have broken down many times, to the point where they can’t be reused, we can still use them as feedstock for conventional recycling. It’s a tremendous reduction in waste.” One key to the recycling process is identifying a solvent with a low surface tension for use in breaking up the nanowire network. “Low surface tension is important because it makes it easier for the solvent to diffuse into the narrow junctions between nanowires in the network, facilitating the disassembling of the network,” Liu says. The researchers found that it is also important to find the right balance of time when breaking up the nanowire networks with ultrasound. If you apply the ultrasound for too long, you can break the nanowires. If you don’t apply the ultrasound for long enough, you can end up with clumps of nanowires. “The approach we’ve demonstrated here could be used to recycle other nanomaterials – such as nanoparticles, carbon nanotubes, other types of nanowires, and two-dimensional materials – as long as they are used in the form of a network,” Zhu says. For more information, visit: https://news.ncsu.edu/2021/07/recycling-nanowires-in-electronics/

Researchers at North Carolina State University have created a soft and stretchable device that converts movement into electricity and can work in wet environments. The paper, “A Soft Variable-Area Electrical-Double-Layer Energy Harvester,” is published in the journal Advanced Materials. “Mechanical energy – such as the kinetic energy of wind, waves, body movement, and vibrations from motors – is abundant,” says Michael Dickey, corresponding author of a paper on the work and Camille & Henry Dreyfus Professor of Chemical and Biomolecular Engineering at NC State. “We have created a device that can turn this type of mechanical motion into electricity. And one of its remarkable attributes is that it works perfectly well underwater.” The heart of the energy harvester is a liquid metal alloy of gallium and indium. The alloy is encased in a hydrogel – a soft, elastic polymer swollen with water. The water in the hydrogel contains dissolved salts called ions. The ions assemble at the surface of the metal, which can induce a charge in the metal. Increasing the area of the metal provides more surface to attract a charge. This generates electricity, which is captured by a wire attached to the device. “Since the device is soft, any mechanical motion can cause it to deform, including squishing, stretching, and twisting,” Dickey says. “This makes it versatile for harvesting mechanical energy. For example, the hydrogel is elastic enough to be stretched to five times its original length.” In experiments, researchers found that deforming the device by only a few millimeters generates a power density of approximately 0.5 mW m-2. This amount of electricity is comparable to several popular classes of energy harvesting technologies. “However, other technologies don’t work well, if at all, in wet environments,” Dickey says. “This unique feature may enable applications from biomedical settings to athletic wear to marine environments. Plus, the device is simple to make. “There is a path to increase the power, so we consider the work we described here a proof-of-concept demonstration.” The researchers already have two related projects underway. One project is aimed at using the technology to power wearable devices by increasing the harvester’s power output. The second project evaluates how this technology could be used to harvest wave power from the ocean. For more information, visit: https://news.ncsu.edu/2021/08/liquid-metal-energy-harvester/

As anyone who has ever parked a car in the sun on a hot summer day knows, glass windows are great at letting sunlight in but terrible at allowing heat out. Now, engineers at Duke University have developed smart window-like technology that, with the flip of a switch, can alternate between harvesting heat from sunlight and allowing an object to cool. The approach could be a boon for HVAC savings, potentially cutting energy usage by nearly 20% in the United States alone. The electrochromic technology – material that changes color or opacity when electricity is applied – is detailed in a paper "Ultra-Wideband Transparent Conductive Electrode for Electrochromic Synergistic Solar and Radiative Heat Management" published in the journal American Chemical Society Energy Letters. “We have demonstrated the very first electrochromic device that can switch between solar heating and radiative cooling,” said Po-Chun Hsu, assistant professor of mechanical engineering and materials science at Duke. “Our electrochromic tuning method does not have any moving parts and is continuously tunable.” Smart windows made from electrochromic glass are a relatively new technology that uses an electrochromic reaction to change glass from transparent to opaque and back again in the blink of an eye. While there are many approaches to creating this phenomenon, they all involve sandwiching an electrically responsive material between two thin layers of electrodes and passing an electric current between them. While this trick is difficult enough to achieve for visible light, it becomes even more so when having to also consider mid-infrared light (radiative heat). In the paper, Hsu and his graduate student Chenxi Sui demonstrate a thin device that interacts with both spectrums of light while switching between passive heating and cooling modes. In the heating mode, the device darkens to absorb sunlight and stop mid-infrared light from escaping. In the cooling mode, the darkened window-like layer clears, simultaneously revealing a mirror that reflects sunlight and allows mid-infrared light from behind the device to dissipate. Because the mirror is never transparent to visible light, the device would not replace windows in homes or offices, but it might be used on other building surfaces. “It’s very difficult to create materials that can function in both of these regimes,” Hsu said. “Our device has one of the largest tuning ranges in thermal radiation ever demonstrated.” There were two major challenges to overcome to engineer such a device. The first was creating electrode layers that conduct electricity and are transparent to both visible light and thermal radiation. Most conductive materials such as metals, graphite, and some oxides don’t fit the bill, as these two properties are at odds with one another, so Hsu and Sui engineered their own. The researchers started with a one-atom-thick layer of graphene, which they showed is too thin to reflect or absorb either type of light. But it is also not conducive enough to transmit the amount of electricity required for the device to work at a large scale. To get around this limitation, Hsu and Sui added a thin grid of gold on top of the graphene to act as a highway for electricity. While this somewhat decreased the graphene’s ability to allow light to pass through unimpeded, the tradeoff was small enough to be worth it. The second challenge involved engineering a material that could go between the two electrode layers and switch back and forth between absorbing light and heat or allowing them to pass through. The researchers achieved this by harnessing a phenomenon called plasmonics. When tiny, nanoscale metal particles are placed just nanometers away from each other, they can essentially trap specific wavelengths of light based on their size and spacing. But in this case, the nanoparticles are randomly distributed in clusters, leading to interactions with a wide range of wavelengths, which is beneficial for efficiently trapping sunlight. In the demonstration, electricity passing through the two electrodes causes metal nanoparticles to form near the top electrode. Not only does this blackout the device, but it also causes the entire device to absorb and trap both visible light and heat. And when the electrical flow is reversed, the nanoparticles dissolve back into the liquid transparent electrolyte. The transition between the two states takes a minute or two to complete. “The device would spend many hours in one state or the other out in the real world, so losing a couple of minutes of efficiency during the transition is just a drop in the bucket,” said Hsu. There are still many challenges to making this technology useful in everyday settings. The largest might be increasing the number of times the nanoparticles can cycle between forming and disintegrating, as the prototype was only able to perform a couple dozen transitions before losing efficiency. There is also room for improvement in the solar reflectivity of the cooling mode, which Hsu hopes can achieve sub-ambient cooling in the near future. As the technology matures, however, there may be many applications for it. The technology might be applied to exterior walls or roofs to help heat and cool buildings while consuming very little energy. Providing the building envelopes such a dynamic capability to use renewable resources for heating and cooling could also open up the opportunity to use less of the construction materials that have been a significant source of carbon emission for decades. For more information, visit: https://pratt.duke.edu/about/news/smart-material-switches-between-heating-and-cooling-minutes

Speaker: Frank Louwet | Company: Agfa | Date: 11-12 May 2021 | Full Presentation Digital printing has clearly established itself for graphics printing, thanks to the advantages it offers over traditional processes like screen printing. More recently, digital printing started morphing into digital manufacturing and also Printed Electronics is taking advantage of that evolution. In this talk we will review Agfa's digital conductive inks based on nanomaterials, and highlight some features of newly developed inks. In the second part of the talk, Nanogate Netherlands will discuss the application of additive digital manufacturing in motor sport products. Peter Willaert Global Marketing Manager Printed Electronics @ Agfa Bio Experienced Product Marketing and Business Development Manager in Printed Electronics with a background in Electronic Engineering. Over the years I have developed a broad knowledge about materials and processes for applications like RFID, iOT, Sensors, Displays etc. Join TechBlick on an annual pass to join all live online conference or online version of onsite conference access library of on-demand talks (600 talks + PDFs) portfolio of expert led masterclass year-round platform https://www.techblick.com/ And do NOT miss our flagship event in Berlin on 17-18 OCT 2023 focused on Reshaping the Future of Electronics. This event attracts 550-600 participants from all the world and offers a superb ambience and dynamic exhibition floor. To learn more visit https://www.techblick.com/electronicsreshaped To see feedback about previous event see https://www.techblick.com/events-agenda