Naturally occurring organic matter in water and sediment appears to play a key role in helping microbes convert tiny particles of mercury in the environment into a form that is dangerous to most living creatures.
Researchers are adapting the same methods used in fusion-energy research to create extremely thin plasma beams for a new class of "nanolithography" required to make future computer chips.
Dr. Arum Han, assistant professor in the Department of Electrical and Computer Engineering at Texas A+M University, and Dr. Paul de Figueiredo (PI) from the plant pathology and microbiology department have received a grant from the National Science Foundation (NSF) to develop a microbial fuel cell (MFC) array for bioenergy research.
Borealis, a leading provider of innovative, value creating plastics solutions, has completed the plastics industry's first assessment of the Water Footprint of plastics materials. The findings will be discussed at th...
Two nanoscale devices recently reported by University of Pittsburgh researchers in two separate journals harness the potential of carbon nanomaterials to enhance technologies for drug or imaging agent delivery and energy...
A UC Irvine center that aims to make real-time videos of single molecules in action has been awarded $20 million over five years from the National Science Foundation.
The University of Georgia Research Foundation, Inc. (UGARF) and the University of Puerto Rico have granted an international, non-exclusive license for a portfolio of glow-in-the-dark pigments that can be designed to emit light in any color of the visible spectrum for nearly a day. Performance Indicator, LLC, of Lowell, Mass., acquired the license.
A chemist at the University of Wisconsin-Milwaukee (UWM) has developed a kind of invisible fence for trapping and controlling particles as small as a single virus or large protein.
Researchers have modified nanoparticles known as "Cornell dots" to make the world's tiniest laser -- so small it could be incorporated into microchips to serve as a light source for photonic circuits. The device may also have applications for sensors, solar collectors and in biomedicine.
The webinar series focuses on a semi-quantitative method for the optimization and scale-up of hydrodynamically limited antisolvent crystallization process. This protocol combines in situ Process Analytical Technologies (PAT) with Computational Fluid Dynamics (CFD) to facilitate the production of a knowledge based scale-up strategy for this mixing limited crystallization process.
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