Published on May 16th, 2018 | By: April Gocha0
Other materials stories that may be of interestPublished on May 16th, 2018 | By: April Gocha
[Images above] Credit: NIST
A team of chemists at Penn State has developed a designer’s toolkit that lets them build various levels of complexity into nanoparticles using a simple, mix-and-match process. The researchers begin with what they call first-generation particles, with nanometer-scale dimensions.
Graphene has many incredible properties, but to date it has been difficult to use on a large scale in industry, because it loses its unique properties and goes back to its origin graphite. Now, a researcher has developed a new form of graphene that can solve the problem.
Researchers at Argonne National Laboratory are combining nanodiamonds with 2-D molybdenum disulfide layers and breaking them to create a self-generating, very-low-friction dry lubricant that lasts so long it could almost be confused with forever.
Researchers may have brought the renewable energy future one step closer. A new electrode can accomplish the hydrogen evolution reaction in acidic conditions, making the technology both cheaper and more effective. The process is helped by a smart form of graphene.
Researchers have designed a unique lithium-ion battery electrode, where red phosphorus is stuffed into carbon nanotubes. The charge-discharge capacities are twice or even higher than that of graphite in commercial lithium-ion batteries.
Researchers have fashioned a powerful 3-D lithium ion battery with a footprint on the order of one hundred grains of salt. The setup has an array of anode posts covered uniformly by a thin layer of a photo-patternable polymer electrolyte and cathode materials between the posts.
Brookhaven National Laboratory researchers conducted a multi-technique X-ray study to learn more about the structural and chemical evolution of a metal sulfide additive—copper sulfide, in this case—as the lithium ions moved between the battery’s electrodes.
Purdue engineers have figured out a way to tackle plastic landfills while also improving batteries—by putting ink-free plastic soaked in sulfur-containing solvent into a microwave, and then into batteries as a carbon scaffold.
For the first time, researchers at the Indian institute of Science (IISc) have designed a ceramic material capable of achieving an electrostrain value of 1.3 percent—the highest for a ceramic to date and the closest to the record set by single crystals.
Researchers have developed a numerical method to simulate the molecular aging process in amorphous materials, such as concrete and glass. This technique could better understand how materials weaken with age and also develop materials that maintain their strength indefinitely.
A University of Washington-led team has encoded information using magnets just a few layers of atoms in thickness. This breakthrough may revolutionize computing and electronics technologies by enabling data storage at a greater density and improved energy efficiency.
Researchers in Japan have successfully created chiral nanostructures from particles of gold. The trick was to use circularly polarized light to generate electric fields. They first deposited Au nanocuboids—essentially miniature rectangular gold bars—on a TiO2substrate.
Researchers at the University of Illinois have developed a new polymer-curing process that could reduce the cost, time and energy needed to manufacture anything that needs strong, lightweight and heat resistant parts, compared with the current manufacturing process.
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