To transform items from science fiction to scientific reality, an in-depth knowledge of the functioning of these unconventional metamaterials is mandatory.
In the recent past, a range of computational tools have been developed through research attempts such as the Materials Project and the Materials Genome Initiative. These tools have been helpful in designing innovative materials that can be used for various applications, such as aeronautics, energy, civil engineering, and electronics.
A team of researchers at the University of Illinois and the University of Massachusetts, Amherst have discovered the first steps toward attaining control over the self-assembly of artificial materials in the same way that biology develops natural polymers.
The results of a research team at the University of Freiburg’s Institute of Physics have been given a special place in the “Nature Photonics” journal: a supplementary “News & Views” article in the print version of the science journal focuses on the work of the team headed by Prof. Dr. Tobias Schätz, Dr. Leon Karpa, Julian Schmidt, and Alexander Lambrecht.
Polymers are highly valued by industry and progressively used as substitutes for metals in the manufacture of automobile parts, firearms, and others. Such parts are marked with serial numbers, for traceability and security purposes.
Researchers have long wondered about the origin of delicate criss-cross facetted patterns that are usually found on the surfaces of broken material. Typical crack speeds in glass effortlessly surpass a kilometer per second, and broken surface features could be smaller than a millimeter.
Computer scientists at the University of Washington have created a new type of smart fabric that could enable jackets to store invisible passcodes and allow opening of the door to one’s apartment or office.
In a remarkable advancement, researchers from the Tata Institute of Fundamental Research (TIFR), Mumbai, have developed a high-power radiation source in the greatly needed teraHertz (THz) region of the electromagnetic spectrum.
Rice University researchers state that high-performance electrodes for lithium-ion batteries can be enhanced by looking closely at their defects — and exploiting them.
Researchers from Virginia Commonwealth University are working towards improving safety and conductivity in lithium-ion batteries, which are employed for powering many electronic devices all over the world, including iPods, satellites, artificial hearts, laptops and cell phones.
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