Articles tagged with Thin Films
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Researchers from Brown University developed a mathematical model that helps engineers control wrinkle, crease, and fold structures in various materials. The model shows that at low compression, wrinkles form across the surface, but as compression increases, critical points lead to the localization of ripples into sharp creases.
Researchers at USC Viterbi School of Engineering developed a hybrid circuit combining carbon nanotube thin film transistors with indium, gallium and zinc oxide (IGZO) thin film transistors. This energy-efficient hybrid circuit has the potential to replace silicon as the traditional transistor material used in electronic chips.
KAIST researchers have developed a new technique to increase the energy efficiency of piezoelectric nanogenerators, enabling the creation of self-powered flexible energy harvesters that can supply power to wearable and implantable electronic devices. The improved nanogenerators can harness energy from human movements and natural resour...
By patterning the surface of nickel ferrite (NFO) thin films, researchers have reduced coercivity by 30-80%, depending on film thickness. This technique improves device performance and reduces energy use in applications like sensors, microwave devices, and antennas.
Scientists at Lawrence Berkeley National Laboratory's Advanced Light Source have demonstrated the ability to control the conducting/insulating phases of ultra-thin films of Mott materials using epitaxial strain. This breakthrough could lead to more efficient transistors and memories with higher energy efficiencies and faster switching ...
Developers have created a metal oxide shell that increases the stability of nanowire devices, which can detect disease biomarkers and record heart cells. This coating allows nanoelectronic devices to last several months in human body conditions.
Researchers discovered a novel solid-state reaction that lets kesterite grains grow within seconds and at low temperatures. This process can produce near-micrometer-sized crystal grains suitable for thin film solar cells.
Researchers at North Carolina State University have developed a new method for producing cheap hydrogen using atomic-scale catalysts made of molybdenum sulfide (MoS2). The study found that the thickness of the MoS2 film is crucial to its catalytic performance, with thinner films being more conductive and effective as catalysts.
Researchers developed a new technique to produce thin films of germanium crystals without high temperatures or other crystals as seeds. This allows for the production of large-area germanium films, opening new ways to create advanced flexible electronics.
Researchers studied the dynamics of squeezing fluids using a simple experiment of clapping with wet hands. The study sheds light on the behavior of fluids at the microscale level and has implications for fuel efficiency and pharmaceutical drug deliveries.
The NIST nanoindenter uses a touchless surface detector to accurately measure the mechanical properties of thin films and biomaterials without contact. It applies forces up to 150 millinewtons and takes readings a thousand times a second with an uncertainty lower than 2 micronewtons.
Researchers at North Carolina State University have developed nano-volcanoes that can store precise amounts of materials and control the release of drugs. The structures are created by shining light through a nanoscale 'crystal ball', allowing for precise control over their shape and size.
Researchers at Georgia Institute of Technology create a new type of paper that repels a wide variety of liquids, including water and oil, using the 'lotus effect'. The modified paper could be used as a foundation for inexpensive biomedical diagnostics and provide an improved packaging material that is recyclable and sustainable.
Researchers developed nanostructures that suppress 'thin-film interference', a phenomenon causing light loss in multiple-layered thin films. These nanostructures reduce reflection by up to 100 times, potentially increasing the efficiency of thin-film solar cells.
A new solid-state controllable light filter has been developed to shield preterm infants from most wavelengths of visible light, promoting better maturation. The device switches between blocking out all light and allowing red light through, enabling medical staff and parents to monitor the infants without disrupting their sleep.
Researchers developed a new thin film technology that allows for simultaneous analysis of multiple substances, leading to faster and more efficient diagnostics. The device can detect changes in chemical composition using optical fingerprints, offering improved accuracy and reliability compared to existing state-of-the-art technology.
A new spectroscopy method has been developed to analyze light emission from layered nanomaterials, enabling researchers to determine the orientation of emitters and potentially improve the efficiency of optical devices. The technique uses energy-momentum spectroscopy to study interference effects in thin films.
University of Illinois researchers have devised a method to make ferroelectric thin films with twice the strain, resulting in improved performance. The films have a built-in electric field, called an intrinsic potential, which opens the door for new applications such as smaller, faster and longer lasting computer components.
For the first time, researchers have observed how reducing dimensions affects ferroelectrics' susceptibility to size- and strain-induced effects. This work provides a detailed modeling and experimental study of pyroelectricity, with direct implications for next-generation devices.
Researchers at UT Austin create a novel process to grow ceramic thin films onto plastic substrates using microwaves, reducing growth temperature from over 450°C to under 150°C. The method enables controlled film growth in a single step, with potential applications in developing thin-film batteries and solar cells.
Scientists have found a model that describes the evolution of cauliflower-type fractal morphologies for nanoscopic systems, offering insights into natural structures like sea coasts and blood vessels. This breakthrough may help improve technologies used in thin film coatings and generate textures in computer simulations.
Researchers developed an all-carbon solar cell that absorbs near-infrared wavelengths, offering a low-cost alternative to traditional photovoltaic devices. The device uses carbon nanomaterials and has the potential to improve efficiency through better materials and processing techniques.
A KAIST research team has developed a high performance flexible all-solid-state battery, overcoming limitations of existing lithium-ion batteries. The breakthrough allows for the creation of fully flexible electronic systems, such as rollable displays, with improved power density and thermal stability.
Researchers at NIST have developed a novel clay-based coating that outperforms traditional flame retardants in polyurethane foam, reducing flammability by up to 17% while requiring only half the amount of chemicals.
Researchers at UMass Amherst identify fundamental mechanism for spontaneous emergence of complex patterns like wrinkles and crumples. The discovery confirms theoretical predictions and reveals unusual sequence of transitions underlying these morphological complexities.
Researchers used diamond anvil cells to apply extreme pressure to argon, heating it with microsecond laser bursts to 2,500 degrees K. The results confirmed kinetic theory as a better model for argon's thermal conductivity than Green-Kubo formalism.
Researchers found that film casting methods can affect the ordering of block copolymers in thin films. Spin casting led to fewer residual stresses and improved cylinder alignment for computer memory devices, suggesting a potential route for enhanced device performance.
Researchers at Berkeley Lab directed the self-assembly of gold nanoparticles into device-ready materials using a simple and inexpensive technique. The method has potential applications in computer memory storage, energy harvesting, remote-sensing, catalysis, light management, and plasmonics.
Researchers developed functional oxide thin films for efficient electronics, creating a new field of oxide electronics. This innovation enables high-power devices and smart sensors by overcoming the limitations of silicon-based electronics.
Researchers have successfully fabricated ultrananocrystalline diamond nanowires with exceptional electrical properties, including sensitivity to gas molecule adsorption at grain boundaries. The discovery offers new possibilities for advanced nanoscale sensors.
Lawrence Livermore National Laboratory scientists used an ultrafast spectroscopic technique to measure breakouts in aluminum thin films at high strain rates. The research tested fundamental scaling laws and revealed unexpected insight into shock wave phenomena.
Scientists at University of Cambridge and Rutgers University develop new class of organic thin films on surfaces, exhibiting unique properties ideal for high-density stable thin films. The findings pave the way for creating smaller electronic devices, replacing conventional fabrication techniques.
Researchers at Purdue University have developed a new manufacturing method that employs an ultrafast pulsing laser to create high-quality microchannels in thin-film solar cells. This technique could significantly increase the efficiency and reduce the cost of solar cells, enabling widespread adoption.
Researchers developed a bio-eco-friendly ceramic thin film nanogenerator that can convert tiny human movements into electrical energy without breaking down. The technology uses freely bendable piezoelectric ceramic materials to harness biomechanical forces produced by the body.
Stanford engineers discovered that ultra-thin solar cells with nanoscale roughness can absorb more energy than predicted by conventional theory. Light trapping technique increases energy absorption beyond the theoretical limit, opening a new door to designing highly efficient solar cells.
A team of scientists created nano-patterned superconducting thin films that can change their electrical resistance in response to an external magnetic field. The discovery could lead to new electronic devices, as the material's fluctuating response to a magnetic field could result in switchable superconducting wires.
Researchers from Louisiana Tech University are presenting their work on smart nanofilms for regenerative medicine at the 2010 Experimental Biology meeting. Their presentation highlights the first known application of a smart nanofilm sprayed directly on living tissue, showing promising results in wound healing and potential application...
Researchers found that single-walled carbon nanotube coatings can develop irreversible changes when bent, reducing conductivity. They suggest ways to engineer the films to minimize these effects and achieve deformability.
Researchers at UCLA have created a new graphene nanostructure called graphene nanomesh (GNM), which can open up a band gap in graphene and create a highly uniform, continuous semiconducting thin film. This breakthrough has the potential to enable practical application of graphene as a semiconductor material for future electronics.
The researchers used photolithography to define shapes on a thin film of single-crystalline silicon, then applied water droplets to direct self-assembly. The resulting structures offer mechanical bendability and promise efficient solar energy harvesting with thin films.
A University of Pittsburgh-led team creates a nanoparticle-based coating that thwarts the buildup of ice on solid surfaces, offering a potential solution to prevent freezing rain damage. The coating, inspired by water-resistant lotus leaves, uses microscopic ridges to reduce surface area for ice adhesion.
A team of MIT researchers has developed a new approach to designing stretchable electronics by studying the delamination of stickers, which can lead to damage in twisted materials. By controlling the strength of adhesion and elastic properties, they can create devices that allow wires to move with the material without breaking.
Shashank Priya has received a three-year grant to develop high-sensitivity resonant magnetic field sensors using magnetoelectric thin films. The technology has the potential to enhance performance of communication devices such as GPS systems.
Researchers found an unexpected increase in squeeze flow of thin films when film thickness was smaller than 100 nanometers. This phenomenon occurs due to changes in molecular entanglement and polymer chain interaction at the nanoscale.
A new coating made from carbon nanotubes improves the signals received and transmitted by electrodes, potentially advancing electrical nerve stimulation therapy. The coating bolsters both stimulation and receptive capabilities, showing promise in treating diseases such as epilepsy, depression, and chronic leg and back pain.
Researchers at NC State University have discovered a technique to bring nanoparticles to the surface of thin polymer films using heat, allowing for controllable surface patterns. This breakthrough could lead to tiny reusable bar codes and small fluorescent features that turn off with increasing heat or chemical presence.
Researchers at Northwestern University have created semitransparent, highly conductive films from carbon nanotubes with improved conductivity and mechanical flexibility. These films mimic stained glass appearance and could lead to advancements in flat-panel displays, solar cells, and other energy-efficient technologies.
NIST researchers have improved manipulation of block copolymers, a crucial step in creating tiny dots that can be used as electronic components. They developed accurate measurements of thin film polymeric nanostructure and new insights on how to control self-assembly.
Scientists have developed a spectroscopic technique to measure magnetic properties of thin film edges, which become dominant at the nanoscale. The method allows for prediction of behavior in similar structures, impacting nanoscale electronics design.
Researchers at NIST developed a novel annealing process that creates highly ordered nanostructured polymer thin films with controlled patterns. The 'cold zone' annealing system produces defect-free films with sub-30nm features, opening up new possibilities for microelectronics and data storage applications.
Johns Hopkins students develop a thin film drug-delivery system that dissolves in the mouth, coating with a material protecting it in the stomach and releasing the vaccine in the small intestine. The system could make rotavirus vaccine more accessible to children in developing nations.
Researchers at Michigan State University have discovered that nanoparticles can stop thin polymer films from buckling and wrinkling, paving the way for new solutions to prevent wrinkles. The technology has potential applications in cosmetic procedures and medical treatments.
Researchers developed a method to produce silicon dioxide nanocapsules using supercritical carbon dioxide, allowing for controlled delivery of liquids and materials. The resulting nanocapsules have diameters of less than 40 nanometers and walls that are about 2 nanometers wide.
Researchers will develop structural materials with chemical resistance, thermal stability, and fracture resistance, as well as transparent materials that are self-healing and anti-abrasive. The goal is to create lightweight, high-performance materials for ballistic resistant armor and vehicles.
Researchers at PNNL have linked small organic molecules to create larger molecules that transport charge without interfering with blue light emission, enabling efficient white light generation.
Dr. Chen will use his Guggenheim Fellowship to research the structures and properties of ferroelectric and multiferroic thin films with potential applications in various functional devices. He aims to develop theories and multiscale computational models for predicting their behaviors.
University of Washington researchers have found giant raindrops with diameters similar to or greater than the largest ever recorded. The largest ones were at least 8 millimeters in diameter, possibly a centimeter, suggesting unique conditions led to their formation.
Researchers discovered that ferroelectric materials can maintain stability even at incredibly small thicknesses, opening doors to the creation of smaller devices. This breakthrough is significant for applications such as sensors and memory systems.
The team uses heterocycles from DNA to recognize specific complementary groups, creating a reversible surface that can be modified and reused. The new technology has potential applications in body armor and films.
Germanium nanoclusters can now be coated with polymers, making them stable enough to be processed as plastics. This innovation expands the possible uses of semiconductor nanoparticles, including potential applications in displays and tiny building blocks.