the global economy and have been the subject of research for decades. Despite their unique advantages, x-ray synchrotron spectroscopy techniques were not widely employed by those delving into the intricacies The Synchrotron Catalysis Consortium was established to address this situation by providing scientists a means to study catalysts at work under realistic conditions and developing new techniques to characterize catalysts.
Research into two natural chemicals shows how they compete to coat and change atmospheric particles created by fossil fuel combustion. The results could improve the accuracy of climate and air quality simulations.
By recoding bacterial genomes such as E. coli, it is possible to create organisms that can potentially synthesize products not commonly found in nature.
Researchers found that certain models get the relationship between environmental moisture and precipitation wrong. This mismatch produces more precipitation than is observed particularly during inactive phase of the Madden-Julian Oscillation.
Extremely complex plutonium has ties to energy and security. Scientists from Pacific Northwest National Lab and Washington State University found that plutonium's behavior, in plutonium tetrafluoride, can be attributed to atoms hoarding electrons
Scientists at the Joint Center for Artificial Photosynthesis uncovered the mysteries of photochemical instability in a widely used semiconductor. Their results reveal previously unpredicted pathways to degradation and provide insights.
Physicists at the University of Nebraska-Lincoln are analyzing how ultrafast laser pulses interact with matter. Their study of how two attosecond laser pulses would interact with a helium atom produced an electron momentum distribution that displays an unexpected two-armed vortex pattern, resembling a spiral galaxy.
Scientists reconciled a long-standing controversy on topological insulators' low-temperature electrical properties. These results might pave a way to control the properties of these materials, which hold promise for next-generation electronics.
A recent study reveals different fungal species secrete a rich set of enzymes that share similar functions, despite species-specific differences in the amino acid sequences of these enzymes.
Scientists constructed defect-free sheets of material with pores that "breathe"--open and close simultaneously without falling apart.
Carbon nanotubes that confine water into one-dimensional wires have validated a decade-old prediction and achieved rates faster than in bulk water and state-of-the-art fuel cell membranes. Ultimately, this could aid membranes for fuel cells to power your car and home.
Scientists performed an exquisitely precise measurement of the angular distribution of neutrinos emerging from beta decay using a novel approach to reveal the subtle imprint of tensor interactions -- processes that have long defied measurement.
Developed at Lawrence Berkeley National Laboratory, a new mathematical framework sheds light on how fast a fluid moves in its environment, how much pressure it is under, and what forces it exerts on its surroundings.
In herbivores' guts, fungi digest plant material. Researchers characterized several fungi involved in this digestion process and identified a large number of enzymes that work synergistically to degrade the raw biomass.
Scientists reveal conductive edges and thread-like flaws during the normal operation of molybdenum disulfide transistors using a specialized imaging technique of interest for next-generation electronics.
Johannes Lercher, Director of Pacific Northwest National Laboratory's Institute for Integrated Catalysis, was chosen for the first David Trim and Noel Cant Lectureship sponsored by the Catalysis Society of Australia.
Researchers studying brown carbon released by burning plant matter found that brown carbon's light absorption (warming effect) properties depend more on burn conditions) than fuel type.
Hitching a ride on fatty molecules, a "sticky" strategy shields sugary molecules from their soluble nature, and may explain the discrepancies between models and actual measurements of sea spray aerosol composition.
Transformations: Basic Catalysis Enabling Zero-Carbon-Footprint Future, Scale-up of Aviation Biofuels, Five Cents about Nickel Catalysts
The August 2016 issue of the Institute for Integrated Catalysis' Transformations highlights in catalysis.
For the first time, scientists revealed the structural and chemical evolution of molecules at an electrode surface in an operating battery.
Future batteries made of negatively charged electrodes that take advantage of magnesium intercalation could have twice or more the energy density of today's commercial lithium-ion batteries.
Scientists traced how a cluster of water molecules adapts to incorporate an extra proton in the formation of an aqueous acid. Their research indicates that the extra proton resides on the surface of a cage structure formed by the 21 water molecules.
Atom and bond arrangements help determine a molecule's identity. Researchers adapted a new technique called "itProbe" to produce images of structure and bonding in a single molecule, essentially unmasking the molecules.
Scientists can now manipulate x-ray light using visible light, removing the need for inefficient and expensive optics that other approaches must use.
Researchers found that the details of an extremely rare, but fundamental, process, in which two packets of light scatter simultaneously from a single electron deviated dramatically from expectations.