One of the difficulties faced by researchers involved in innovative electronic devices is to compare devices according to various materials in a reliable manner.
Since the initial discovery of what has become a rapidly growing family of two-dimensional layered materials -; called MXenes -; in 2011, Drexel University researchers have made steady progress in understanding the complex chemical composition and structure, as well as the physical and electrochemical properties, of these exceptionally versatile materials.
Recent research has finally made chemists’ long-held desire to watch a single molecule’s structural dynamics a reality.
Scientists from The University of Texas at Austin (UT Austin) and North Carolina State University (NC State) have discovered a distinctive property in multifaceted nanostructures for the first time, which has so far only been observed in basic nanostructures.
In an article recently published in the journal Applied Acoustics, researchers discussed the results of the preliminary research on mixed porous/nano-fibrous materials for noise attenuation within aircraft cabins.
In an article published in the journal Progress in Organic Coatings, researchers synthesized two different graphene nanosheets with distinct oxygen group localization to analyze their effect on the electrical characteristics of graphene/epoxy nanocomposite coatings.
A novel light-manipulating technology has been developed by an international team, including Kyoto University, that can be applied to lasers, sensors, and nonlinear optics.
Following the acquisition of the 4PICO Group by Raith in June 2021, a major step of the integration is now complete: 4PICO has now been officially renamed Raith Laser Systems B.V. and thus also visibly integrated into th...
Osaka Metropolitan University scientists have developed a simple, rapid method to simultaneously identify multiple food poisoning bacteria, based on color differences in the scattered light by nanometer-scaled organic metal nanohybrid structures (NHs) that bind via antibodies to those bacteria.
There is an entire aqueous universe hidden within the tiny pores of many natural and engineered materials. Research from the McKelvey School of Engineering at Washington University in St. Louis has shown that when such materials are submerged in liquid, the chemistry inside the tiny pores — known as nanopores — can differ critically from that in the bulk solution.
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