Composite lightweight construction based on thermoplastics promises more efficient manufacturing processes and the recycling of obsolete components. Until the innovative materials and processes are used on a large scale some challenges still need to be solved and more experience needs to be gained.
University of Michigan scientists have demonstrated that instead of constructing plastic filaments layer by layer, a new method to 3D printing lifts complex shapes from a vat of liquid at up to 100 times faster than conventional 3D printing processes.
New research could make way for the design of new materials to help enhance the performance of perovskite solar cells (PSCs).
A team of researchers from the University of Illinois led by chemistry professor M. Christina White have created a new manganese-based catalyst that can alter the structure of drug-like molecules to produce new drugs, advancing the pace and efficiency of drug development.
Towards the end of this month, new posters, an animation, and a booklet co-designed by service users from Bristol Drugs Project are being launched to advertise the advantages of low dead space injecting equipment for people who inject drugs, along with more extensive harm reduction messages.
Recently, three scientists from the University of Massachusetts Amherst, addressing a physics problem that dates back to Galileo, have suggested a new method to the theory of how thin sheets can be forced to conform to “geometrically incompatible” shapes—similar to gift-wrapping a basketball—that depends on intertwining two fundamental ideas of geometry and mechanics that were long believed to be incompatible.
Dr. Hyunmin Kim’s team in the Companion Diagnostics and Medical Technology Research Group and Professor Jae-dong Lee’s team in the department of Emerging Materials Science at DGIST proved the presence of upper band gap of atomic rhenium disulfide (ReS2) layers in the conductive atomic structure of ionization energy, through a collaborative research with Professor Jong-hyun Ahn’s research team at Yonsei University.
Synchronization can be observed when two diverse systems oscillate in an identical way. This underlies many collective phenomena seen in nature, providing an example for emergent behaviors spanning from the acoustic harmony of cricket choruses to the behavior of the human brain.
Researchers from the University of Notre Dame has discovered that the properties of a material typically used to make protective or conductive films and encapsulate drug compounds—and the conditions in which this material will disassemble to discharge that drug—may be different than originally believed.
Japanese researchers have found an approach to more quickly and successfully identify superconducting materials.
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