Purdue University physicists created computational tools that can predict the fleeting structures of iron-containing enzymes as they transform during chemical reactions. Many of these temporary but critical structures have eluded capture through traditional experimental methods such as X-ray crystallography.
B&W Tek Inc. introduced the BAC200, a fiber optic Raman probe capable of delivering the performance of a larger Raman probe in a small diameter of less than 4 mm with enhanced optical collection power.
Heidenhain announced the latest version of their PC-based QUADRA-CHEK Metrology software, providing advanced functionality for inspection measurement machines. This software makes it possible to perform 2D and 3D measuring tasks in the field of metrology when standard DRO products will not suffice.
For more than a decade, the three Sloan Digital Sky Surveys have surveyed well over a quarter of the night sky and produced the biggest 3D color map of the universe ever. Now, the sheer volume of light information it contains has allowed researchers to make the most accurate calculation yet of how matter clumps together.
A team in Germany has built a transmitter less than a millimeter square that has generated the highest frequency ever attained by a microelectronic device: 1.111 THz. Compared to previous transmitters that have been bulky and expensive, the new device could soon find use in engineering applications.
Despite cryo-electron microscopy’s ability to resolve viruses, scientists have been unable to clearly visualize structures inside of viruses because radiation is used to image them. Reserachers at the National Institutes of Health invented a new technique that turns this radiation into an imaging asset.
Modified probiotics, the beneficial bacteria touted for their role in digestive health, could one day decrease the risk of Listeria infection in people with susceptible immune systems, according to Purdue University research.
A Rice University laboratory has found a way to turn common carbon fiber into graphene quantum dots. The sub-5-nm carbon-based quantum dots were produced in bulk through the wet chemical process, and are highly soluble. Their size can be controlled via the temperature at which they're created.
University of Illinois researchers have shown that by tuning the properties of laser light illuminating arrays of metal nanoantennas, these nanoscale structures allow for dexterous optical tweezing as well as size sorting of particles.
Robotics experts at the University of California, Santa Cruz and the University of Washington have completed a set of seven advanced robotic surgery systems for use by major medical research laboratories throughout the United States.
Using electron microscopy and a revolutionary new system for protein expression, researchers at Lawrence Berkeley National Laboratory have provided the most detailed look ever at the “regulatory particle” used by proteasomes to identify and degrade proteins marked for destruction.
New research demonstrates that previous models used to examine cancer may not be complex enough to accurately mimic the true cancer environment. Using oral cancer cells in a 3D model of lab-made tissue that mimics the lining of the oral cavity, the researchers found that the tissue surrounding cancer cells can epigenetically mediate, or temporarily trigger, the expression or suppression of a cell adhesion protein associated with the progression of cancer.
Researchers from the Georgia Institute of Technology and the Centers for Disease Control and Prevention have developed a new laboratory test that can rapidly identify the bacterium responsible for staph infections. This new test takes advantage of unique isotopic labeling combined with specific bacteriophage amplification to rapidly identify Staphylococcus aureus .
University of Illinois materials scientists have developed a new reactive silver ink for printing high-performance electronics on ubiquitous, low-cost materials such as flexible plastic, paper, or fabric substrates.
Optimizing the conductivity of ceria-based oxides, or doped ceria, is crucial to their use as electrolytes in future solid oxide fuel cells. Researchers from NIST and Arizona State University have successfully used kinetic lattice Monte Carlo simulations to predict the optimum dopant concentration for maximizing conductivity for gadolinium doped ceria at temperatures that are practical for fuel cell operation.