A science team at Berkeley Lab has precisely measured some previously obscured properties of a 2-D semiconducting material known as moly sulfide, which opens up a new avenue to applications.
A science team at Berkeley Lab has precisely measured some previously obscured properties of a 2-D semiconducting material known as moly sulfide, which opens up a new avenue to applications.
Scientists at Berkeley Lab and Purdue University developed new theories and 3-D simulations to explain what’s at work in the mysterious jets of energy and matter beaming from the center of galaxies at nearly the speed of light.
Five scientists at Lawrence Berkeley National Laboratory have been selected by the U.S. Department of Energy’s Office of Science to receive significant funding for research through its Early Career Research Program.
New measurements – made possible by the 570-megapixel Dark Energy Camera in Chile – of the amount and “clumpiness” of dark matter in the present-day cosmos were made with a precision that rivals that of inferences from the early universe by a space telescope, the European Space Agency’s Planck observatory.
A newly discovered collective rattling effect in a type of crystalline semiconductor blocks most heat transfer while preserving high electrical conductivity – a rare pairing that scientists say could reduce heat buildup in electronics devices and turbine engines, among other possible applications.
Scientists at Berkeley Lab have developed a “spongy,” light-activated material that converts carbon dioxide into carbon monoxide, which can be further turned into liquid fuels and other useful products. This is done without generating unwanted chemical reactions and byproducts, a significant step forward in developing technology that could help mitigate levels of a potent greenhouse gas while generating solar-powered fuel.
Researchers have found a surprisingly versatile workaround to create chemical compounds that could prove useful for medical imaging and drug development.
PHENIX, a software suite launched 17 years ago at Berkeley Lab to automate the analysis of structural biology data, has received $9.3 million from the National Institutes of Health for continued development. The grant will support the use of PHENIX to build and refine models to solve three-dimensional macromolecular structures.
A team including Berkeley Lab scientists has developed a faster and easier way to make a class of sulfur-containing plastics that will lower the cost of large-scale production.
In a unique groundbreaking ceremony held July 21 at a research site in South Dakota, a group of dignitaries, scientists and engineers from around the world marked the start of construction of a massive international experiment that could change our understanding of the universe.