It's been used to dye the Chicago River green on St. Patrick's Day. It's been used to find latent blood stains at crime scenes. And now researchers at Northwestern University have used it to examine the thinnest material in the world.
Realization of the project will bring Russian bifacial crystalline silicon solar modules to the world market. The new modules will have efficiency factors that surpass unifacial modules by 10% to 70% - 10% when installation is done without additional construction; 70% when reflectors and tracking systems are built.
Researchers have combined calorimetry with vibrational spectroscopy - a technique that measures how molecules respond to certain light frequencies - to identify real-time heat evolutions during single and multiple chemical processes
A sensitive yet uncomplicated method to detect differences in DNA strands using metal nanoparticle solutions has been developed by Roejarek Kanjanawarut and Xiaodi Su at the Institute of Materials Research and Engineering at A*STAR, Singapore.
Scientists from A*STAR in Singapore and the USA have developed a fast bioluminescence imaging technique that may greatly assist in the search for drugs that target mobile - or metastatic - cancer cells.
A team of researchers at the FOM institute AMOLF has succeeded for the first time in powering an energy transfer between nano-electromagnets with the magnetic field of light. This breakthrough is of major importance in the quest for magnetic metamaterials with which light rays can be deflected in every possible direction.
Microscopic ridges contouring the surface of flower petals might play a role in flashing that come-hither look pollinating insects can't resist. Michigan State University scientists and colleagues now have figured out how those form.
Using a technique that provides detailed images of nanoscale structures, researchers at the University of Michigan and Detroit's Henry Ford Hospital have discovered changes in the collagen component of bone that directly relate to bone health.
Sophisticated as it is, a superconducting linac is a conventional particle accelerator that, in a machine like the Next Generation Light Source (NGLS) now under study, can be used to produce superbright laser beams. The inverse is also true: powerful lasers can be used to accelerate charged particles - but in ways that are anything but conventional.