Articles tagged with Electrodes
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Researchers are developing hybrid NEM devices to improve performance and reduce power consumption in electronics. While individual NEM devices show high performance, scaling up production is a challenge due to the need for reliability over millions of cycles. New material selection methods have been demonstrated to enhance robustness.
Researchers at MIT have developed hybrid copper-gold nanoparticles that can convert carbon dioxide into hydrocarbon fuels with significantly less energy than pure copper. The tiny particles, engineered to increase surface area and stability, have the potential to greatly reduce greenhouse gas emissions from powerplants.
Researchers at UCLA have developed graphene-based electrochemical capacitors that store substantial amounts of charge, far surpassing traditional batteries. These devices exhibit ultrahigh energy density values while maintaining high power density and excellent cycle stability.
Researchers successfully redirect an electrical discharge from its intended target to a normally less-attractive electrode using a virtual lightning rod created with femtosecond pulses of laser light. This feat demonstrates the potential of using laser-based lightning rods for research and protection.
A new flexible pressure sensor was developed at the University of California, Davis, using a drop of liquid in a polydimethylsiloxane sandwich. The sensor successfully measured human pulse and has potential applications in smart gloves and contact lenses for biosensing and monitoring.
A team led by Drexel University's Yury Gogotsi has provided the first quantitative picture of the structure of ionic liquid absorbed inside disordered microporous carbon electrodes in supercapacitors. This breakthrough mechanism opens the door for designing materials with improved energy storage capabilities.
Researchers at NIST discovered a new switching mechanism for layered switching devices, which retain information even when power is turned off. The discovery could enable computers that boot up in seconds and use far less energy.
Researchers at New York University have developed a method to visualize the internal workings of lithium-ion batteries using MRI, enabling diagnostic and testing capabilities. This technique can identify build-up of deposits on electrodes, which can lead to overheating and failure, allowing for improved battery performance and safety.
A new MRI technique allows for non-invasive examination of battery internal workings, enabling testing of various designs and materials under normal operating conditions. This method has the potential to improve battery performance and safety by visualizing build-up of lithium metal deposits on electrodes.
Researchers at UC Berkeley successfully decoded electrical activity in the brain's temporal lobe while listening to conversation, predicting words heard solely from temporal lobe activity. This breakthrough could enable reconstruction of imagined conversations for severely disabled individuals.
Researchers have developed a way to create stronger and more efficient continuous wave T-rays, which can detect biological phenomena such as increased blood flow around tumorous growths. The new technology could lead to innovations similar to the 'tricorder' scanner used in Star Trek, enabling faster and more convenient medical scanning.
Researchers have successfully created a nano-bio PEC electrode, consisting of iron oxide conjugated with a protein from blue-green algae, which is twice as efficient in water splitting as iron oxide alone. The use of phycocyanin, a light-harvesting protein, improves the electrode's ability to absorb photons and generate photocurrent.
Researchers have developed a new method to analyze electrical activity in the brain, enabling better diagnosis and treatment of brain illnesses. The technique can help identify impending seizures and paralysis, allowing for more effective interventions.
Scientists have found that stretching single molecules can increase their electrical conductivity, contradicting the common assumption that longer wires are less conductive. The discovery uses force-induced resonant tunneling and has significant implications for microelectronics and biological sensing.
Researchers developed novel plasma actuators using winding-shaped electrodes to induce three-dimensional variations in the shear layer, offering significant flexibility in flow control. These new designs adjusted the plasma-induced flow in the form of a ZNMF jet with streamwise and spanwise vortices.
Researchers at UCLA have developed a highly efficient method for producing transparent electrodes using silver nanowires in combination with other nanomaterials. The new electrodes are flexible and highly conductive, overcoming the limitations of indium tin oxide (ITO) materials.
Researchers have created a self-assembling platform for biosensors using synthetic DNA and carbon nanotubes. The technology allows for the creation of highly efficient sensors for detecting various compounds, including glucose, with potential applications in diabetes management and personalized medicine.
A new microelectronic device developed by a Penn-led team can record brain activity at high resolutions, revolutionizing brain-computer interfaces for treating neurological and psychiatric illnesses. The device's flexibility and multiplexed nanosensors enable precise mapping of brain networks underlying normal function and disease.
Researchers have developed a flexible brain implant that could pinpoint seizure start points and shut them down. The device conforms to the brain's surface, allowing for unprecedented brain activity observation.
Using ultra-short pulses of ultraviolet light, scientists increase the number of right-side-up antibodies in QCM sensors, more than doubling their sensitivity. This breakthrough opens up new possibilities for research using this type of sensor.
Researchers used scanning tunneling microscopy to assemble 1-nanometer sized molecules into a 3x3 square array, showing varying conductance across the structure. The study demonstrates the beauty and intricacy of molecular electronics, with applications in miniaturized circuits and challenges to be addressed.
Researchers refute hopping mechanism, showing that porphyrins' conductivity is influenced by temperature and length, potentially suitable for quantum computing applications. The study highlights the potential of porphyrins as electronic components due to their wave nature.
Researchers at UT Knoxville have developed an algorithm that improves the accuracy of electrocardiograms (ECGs) using smartphone technology. The algorithm can detect electrode misplacement and electromagnetic noise, providing more accurate A-F letter grades for ECGs and recommendations for optimal electrode placement.
A Wayne State University researcher has received a $475,000 grant to develop graphene-based neural implants that could improve the quality of life for millions. The technology aims to overcome limitations of current implantable devices by using a flexible material and biodegradable backing.
The University of Cincinnati has developed a lab-on-a-chip sensor that can detect highly electronegative heavy metals like manganese in human blood serum in just ten minutes. This sensor is environmentally friendly and child-friendly, making it an attractive option for clinical, occupational, and research settings.
Researchers at Rice University have created a hybrid graphene film that combines conductivity and transparency, potentially replacing indium tin oxide as a transparent conductive coating in displays. The material outperforms ITO in terms of transparency and conductivity, and is environmentally stable.
Case Western Reserve University researchers developed a new computer modeling method that accurately predicts how peripheral nerve axons respond to electrical stimuli, slashing the process from weeks to just seconds.
University of Pennsylvania researchers have identified a brain-based explanation for how memories become linked, revealing that contextual associations are retained across time scales. The study uses precise brain activity data from epilepsy patients to pinpoint the region of the brain responsible for episodic memory.
Researchers at North Carolina State University have developed a soft memory device that functions well in wet environments, similar to the human brain. The device has biocompatibility and holds promise for interfacing electronics with biological systems, such as cells or tissue.
Researchers at Wayne State University have been awarded a $330,000 NSF grant to develop a 3-D neural probe that can suppress tinnitus by electrically and chemically stimulating neurons. The probe will enable the integration of micro-channels for neurotransmitter-based chemical stimulation and local drug delivery.
University of Pennsylvania researchers have developed a way to form biological molecules that can be directly integrated into electronic circuits. A new microscope technique was also developed to measure the electrical properties of these devices.
Researchers have developed a novel technology to precisely modulate individual neurons, allowing for unprecedented insight into cellular mechanisms of neuronal networks. The technology enables real-time monitoring of brain activity, detection or prediction of seizure onset, and simultaneous treatment with anti-convulsive drugs.
A study published in the journal Brain found that electrical disturbances in the brain, known as cortical spreading depolarizations, are associated with poor recovery and long-lasting outcomes after neurotrauma. These disturbances can be invisible on routine EEG exams but represent extreme changes in voltage.
A team of researchers from Caltech and UCLA used an electrode array to stimulate a paralyzed man's spinal cord, allowing him to stand, step, and regain voluntary leg movements. The treatment improved autonomic functions such as bladder control, temperature regulation, and muscle tone over time.
Scientists have created a novel form of carbon that acts like a super-absorbent sponge, soaking up electric charge. The material can be incorporated into supercapacitor energy-storage devices with remarkably high storage capacity and quick recharge time.
Researchers used a precise atom-by-atom layering technique to fabricate ultrathin transistor-like devices, studying the conditions that turn insulating materials into high-temperature superconductors. The study revealed that as mobile charge carriers are increased, cuprate films transition from insulating to superconducting behavior wh...
Researchers have developed a novel transparent flexible woven electrode for thin-film solar cells, which is more stable and cost-effective than traditional indium tin oxide (ITO)-based electrodes. The new electrode uses a woven polymer material with embedded metal wires to ensure electrical conductivity.
A new MRI device guides surgeons during electrode implantation, potentially cutting surgery time in half and making the procedure faster and more comfortable for patients. The device was developed by a team of UCSF neurosurgeons and radiologists to improve deep brain stimulation outcomes for Parkinson's disease patients.
The University of Warwick team has created a rapid method for preparing robust, ultra-thin gold films on glass, offering a viable alternative to ITO-coated glass. The resulting electrodes are chemically well-defined and can be scaled up for large area applications.
A new study at UCSF reveals that brain implant surgeries can dramatically improve life for people with severe cervical dystonia. The procedure targets a previously untested part of the brain, showing promise in reducing pain and spasms while improving quality of life.
A team of researchers has successfully integrated stretchable electronics technology with standard endocardial balloon catheters, enabling both mapping and ablation functions in a single device. The device features an array of sensors to measure cardiac activity, temperature, blood flow, and pressure.
The NC State team has created microfluidic devices with inherently aligned electrodes composed of liquid metal alloy, allowing for easier and faster electrode creation. This approach enables the creation of useful electrode configurations that were previously difficult or impossible to achieve.
Scientists have successfully controlled the electrical conductance of a single molecule by manipulating its mechanical properties. The research uses a type of molecule called pentaphenylene and demonstrates that changing the tilt angle can increase conductance up to 10 times, thanks to lateral coupling effects.
A breakthrough in brain-computer interface technology could allow people to control prosthetic arms using only their thoughts. Researchers at Washington University have developed an Electroencephalography grid (EECoG) system that can detect specific brain signals, enabling users to control a virtual arm with unprecedented precision.
Researchers at University of Washington develop tiny, battery-powered implantable devices that bridge impaired nerve connections and promote brain recovery from injury or disease. The devices can record nerve cell activity, process it, and stimulate cells in another brain region.
Researchers have developed a new microscopy technique, electrochemical impedance microscopy (EIM), that can explore subtle features of cell adhesion, apoptosis, and electroporation. EIM provides sub-micron spatial resolution and is label-free, making it non-invasive to samples.
Researchers observed electrode wires made from materials used in rechargeable lithium ion batteries contorting and fatten as they become charged with electricity. This study suggests how rechargeable batteries eventually give out and might offer insights for improving battery performance.
Researchers have found a way to improve the reliability of carbon nanotube-based nanoelectromechanical systems by using diamond-like carbon electrodes. This enables reliable switching and storage of binary states in devices, advancing the technology from laboratory-scale demonstrations to practical applications.
Scientists from Donostia-San Sebastian and Kiel universities develop method to control atom count in molecular unions, improving electric current flow. This breakthrough enables precise characterization of nanometric systems, resolving a key problem in nanotechnology.
A new implantable device aims to restore balance during Meniere's disease attacks while preserving natural hearing and residual balance function. The device, developed by University of Washington researchers, has shown promising results in a 10-person surgical trial.
Scientists have created tiny energy storage devices, no bigger than a grain of sand, with the potential to power micro- and nano-scale devices. The new batteries are part of a larger effort to miniaturize lithium-ion technology, which could lead to breakthroughs in fields like medicine and electronics.
The new electrofluidics design combines the best features of both slow and fast electronic devices, requiring low-power and displaying bright images at high speed. This technology is manufacturable using existing equipment, making it a game-changer for environmentally friendly electronics.
Stanford researchers developed an electronic sensor that can detect the slightest touch, mimicking human skin's sensitivity. The new artificial skin uses a thin film of rubber molded into tiny pyramids, allowing it to perceive pressures in a range of very gentle touches.
Researchers translated brain signals into words using two grids of 16 microelectrodes implanted beneath the skull but atop the brain. The study showed that the method can distinguish between brain signals for each word, with an accuracy rate of 76-90%, demonstrating proof of concept.
Scientists have developed a novel method for creating atmospheric pressure plasma jets using grounded electrodes, which differ from conventional applications. This breakthrough increases operator safety and enables the creation of jets at lower voltages, opening up new possibilities for biomedical applications.
A new Northwestern University study has developed a technology that can detect imminent terrorist attacks by correlating P300 brain waves with guilty knowledge in mock terrorism scenarios. The test was accurate in identifying critical concealed information, even without prior knowledge of the planned crime.
Researchers developed a new cochlear implant with more electrodes and a thinner, more flexible wire, which can improve the quality of sound and preserve residual hearing. This innovation allows for more precise stimulation of the auditory nerve, resulting in better sound resolution.
A team of researchers at the University of Alberta developed a longer-lasting plastic solar cell by applying a polymer coating to an electrode. The coating helped prevent chemical leaching, allowing the solar cell to operate for up to 500 hours and then continue working for another seven months.
Researchers have discovered a new nanoscale electrical phenomenon that allows for nondestructive transmission of electricity through glass, enabling the development of faster and less expensive portable diagnostic devices. This breakthrough could also enable significant advancements in building micro-mechanical and lab-on-a-chip devices.
The UCLA Henry Samueli School of Engineering and Applied Science will advance MEMS technology with a $5.5 million grant from the US Defense Department. The goal is to create electrically connected, rotating microscale motors for sensing and communications in defense systems.