Two new significant findings may move scientists closer to understanding the origins of tungsten-ditelluride's (WTe<sub>2</sub>) extremely large magnetoresistance, a key characteristic in modern electronic devices like magnetic hard drives and sensors. Scientists in Illinois recently discovered that tungsten-ditelluride (WTe<sub>2</sub>) is electronically three-dimensional with a low anisotropy.
Advances in ultrathin films have made solar panels and semiconductor devices more efficient and less costly, and researchers at the Department of Energy's Oak Ridge National Laboratory say they've found a way to manufacture the films more easily, too.
Engines, laptops and power plants generate waste heat. Thermoelectric materials can recover heat and improve energy efficiency. Scientists at Oak Ridge National Laboratory explored the fundamental physics of the world's best thermoelectric material.
The U.S. Department of Energy's Argonne National Laboratory this week released a pair of studies on the efficiency of shale oil production excavation. The reports show that shale oil production generates greenhouse gas emissions at levels similar to traditional crude oil production.
Research at the Department of Energy's SLAC National Accelerator Laboratory reveals new details about how tiny, burrowing sea organisms can influence the chemistry and structure of rocks where hydrocarbon deposits such as oil and gas are found.
Researchers from the University of Wisconsin at Madison are the first to grow self-directed graphene nanoribbons on the surface of the semiconducting material germanium. This allows the semiconducting industry to tailor specific paths for nanocircuitry in their technologies. Confirmation of the findings was done at Argonne's Center for Nanoscale Materials.
Scientists at the U.S. Department of Energy's Ames Laboratory have developed molecular modeling simulations and new theoretical formulations to help understand and optimize catalytic reactions that take place in chemical environments where the reactant "ingredients" for catalysis are not well mixed.
Thawing permafrost and contaminated sediment in marine coastal areas pose some of the greatest risks for the production of highly toxic methylmercury.
Quasiparticles are central to energy applications but can be difficult to detect. Researchers at Oak Ridge National Laboratory have seen evidence of quasiparticles called negative trions forming and fading in an ultrathin layer of semiconducting material.
Researchers working at the Department of Energy's SLAC National Accelerator Laboratory have discovered that a mere 9-trillionths-of-a-meter reduction in the length of a chemical bond dramatically boosts the reactivity of a family of molecules that helps keep humans and many other organisms healthy.
Scientists aspire to build nanostructures that mimic the complexity and function of nature's proteins. These microscopic widgets could be customized into incredibly sensitive chemical detectors or long-lasting catalysts. But as with any craft that requires extreme precision, researchers must first learn how to finesse the materials they'll use to build these structures. A discovery by Berkeley Lab scientists is a big step in this direction. The scientists discovered a design rule that enables a recently created material to exist.
High octane rating makes ethanol attractive; ORNL has potential solution to congestion, collisions; ORNL using advanced methods to discover new materials; ORNL hosting molten salt reactor workshop; Virginia Tech using ORNL computing resources for energy exploration
Scientists at Oak Ridge National Laboratory have found a "greener" way to control the assembly of photovoltaic polymers in water using a surfactant--a detergent-like molecule--as a template.
New research by chemists at Brookhaven Lab offers clues that could help scientists design more effective catalysts for transforming carbon dioxide (CO2) to useful products. The study reveals how a simple rearrangement of molecular attachments on an iridium hydride catalyst can greatly improve its ability to coax notoriously stable CO2 molecules to react.
Researchers led by a scientist from Berkeley Lab have developed a simple model of permafrost carbon based on direct observations. Their approach could help climate scientists evaluate how well permafrost dynamics are represented in the Earth system models used to predict climate change.
The U.S. Department of Energy's Ames Laboratory has developed a near ultra-violet and all-organic light emitting diode (OLED) that can be used as an on-chip photosensor.
Quark Matter 2015: Scientists Present, Discuss Latest Data from Experiments Smashing Nuclei at the Speed of Light
Scientists intent on unraveling the mystery of the force that binds the building blocks of visible matter are gathered in Kobe, Japan, this week to present and discuss the latest results from "ultrarelativistic nucleus-nucleus collisions." Known more colloquially as Quark Matter 2015, the conference convenes scientists studying smashups of nuclei traveling close to the speed of light at the world's premier particle colliders-the Relativistic Heavy Ion Collider (RHIC, https://www.bnl.gov/rhic/) at the U.S. Department of Energy's Brookhaven National Laboratory, and the Large Hadron Collider (LHC) at the European Center for Nuclear Research (CERN).
Electron microscopy is pointing researchers closer to the development of ultra-thin materials that transfer electrons with no resistance at relatively high temperatures.
Solar energy pricing is at an all-time low, according to a new report released by Berkeley Lab. Driven by lower installed costs, improved project performance, and a race to build projects ahead of a reduction in a key federal incentive, utility-scale solar project developers have been negotiating power sales agreements with utilities at prices averaging just 5 cents/kWh.
Berkeley Lab researchers have produced the first atomically thin 2D sheets of organic-inorganic hybrid perovskites. These ionic materials exhibit optical properties not found in 2D covalent semiconductors such as graphene, making them promising alternatives to silicon for future electronic devices.
Some of the 300 million tires discarded each year in the United States alone could be used in supercapacitors for vehicles and the electric grid using a technology developed at the Oak Ridge National Laboratory and Drexel University.
A research demonstration unveiled today at the Department of Energy's Oak Ridge National Laboratory combines clean energy technologies into a 3D-printed building and vehicle to showcase a new approach to energy use, storage and consumption.
Deploying a set of tools called "exometabolomics," a Berkeley Lab team harnessed the analytical capabilities of mass spectrometry techniques to quantitatively measure how individual microbes and the biocrust community transform complex mixtures of metabolites from soil. The study published September 22, 2015 in Nature Communications.
Berkeley researchers have devised an ultra-thin invisibility "skin" cloak that can conform to the shape of an object and conceal it from detection with visible light. Although this cloak is only microscopic in size, the principles behind the technology should enable it to be scaled-up to conceal macroscopic items as well.
Single atoms or molecules imprisoned by laser light in a doughnut-shaped metal cage could unlock the key to advanced storage devices, computers and high-resolution instruments.