Published on May 9th, 2018 | By: April Gocha0
Other materials stories that may be of interestPublished on May 9th, 2018 | By: April Gocha
[Images above] Credit: NIST
Engineers at the University of California, Riverside, have demonstrated prototype devices made of an exotic material—zirconium tritelluride nanoribbons—that can conduct a current density 50 times greater than conventional copper interconnect technology.
A research group from ITMO University has developed the first-ever controlled nanodiamond-based light source that can double the emission speed of light sources and help control them. This result was achieved due to artificially created defects in the diamonds’ crystal lattice.
Engineered nanomaterials hold great promise—but when the materials are designed without critical information about environmental impacts at the start of the process, their long-term effects could undermine those advances. A team of researchers hopes to change that.
A precise, chemical-free method for etching nanoscale features on silicon wafers has been developed by a team from Penn State and Southwest Jiaotong University and Tsinghua University in China.
A newly published paper details how a research team lead by scientists at the Advanced Science Research Center’s Nanoscience Initiative are developing self-assembling electronic nanomaterials that can respond to biochemical signals for potential therapeutic use.
Researchers at Duke University and North Carolina State University have demonstrated the first custom semiconductor microparticles to exhibit dynamically selectable behaviors while suspended in water, which could realize applications such as artificial muscles and more.
New all-inorganic perovskite solar cells tackle three key challenges in solar cell technology: efficiency, stability, and cost. The researchers doped all-inorganic cells with manganese to improve their performance, boosting its light harvesting capacity.
Which is a better deal: an established, off-the-shelf solar panel or a cutting-edge one that delivers more power for a given area but costs more? Researchers at MIT and elsewhere have come up with a way to figure out the best option for a given location and type of installation.
Stanford researchers have developed a water-based battery that could provide a cheap way to store wind or solar energy generated when the sun is shining and wind is blowing so it can be fed back into the electric grid and be redistributed when demand is high.
A team of chemists has developed an MRI-based technique that can quickly diagnose what ails certain types of batteries—from determining how much charge remains to detecting internal defects—without opening them up.
Engineers from the National University of Singapore has developed an innovative microchip that can continue to operate even when the battery runs out of energy. Its novel power management technique allows it to self-start and function using a small on-chip solar cell.
Researchers from Harvard University have developed an algorithm that can discover and optimize thermoelectic materials for energy conversion in a matter of months, relying on solving quantum mechanical equations, without any experimental input.
Purdue University research has shown that the most water-repellent surfaces possible, superhydrophobic materials, not only can boil water efficiently under the right conditions, but also stay cooler than hydrophilic surfaces.
Research led by Berkeley Lab scientists has found useful new information-handling potential in samples of tin(II) sulfide (SnS), a candidate “valleytronics” transistor material that might one day enable chipmakers to pack more computing power onto microchips.
Researchers at Duke University have built the first metal-free, dynamically tunable metamaterial for controlling electromagnetic waves. The approach could form the basis for technologies ranging from improved security scanners to new types of visual displays.
A simple method that uses hydrogen chloride can better control the crystal structure of gallium oxides on a sapphire substrate using a technology known as metalorganic chemical vapor deposition and shows promise for novel high-powered electronic applications.
The U.S. Department of Energy’s Ames Laboratory has developed a method of computational analysis that can help predict the composition and properties of as-yet unmade high performance alloys.
A porous material with tailor-made pockets stitched into its structure is a promising material for sensing noxious gases. A thin film of the material, coated onto an electrode, formed an electronic sensor that could detect traces of sulfur dioxide gas.
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