Researchers from Berkeley Lab and Columbia University have created the world’s highest-performance single-molecule diode. Development of a functional single-molecule diode is a major pursuit of the electronics industry.
JBEI, UC Davis and Berkeley Lab researchers have identified a bacterial signaling molecule that triggers an immunity response in rice plants, enabling the plants to resist a devastating blight disease. Rice is not only a staple food, it is the model for grass-type advanced biofuels.
“SINGLE” is a new imaging technique that provides the first atomic-scale 3D structures of individual nanoparticles in solution. This is an important step for improving the design of colloidal nanoparticles for catalysis and energy research applications.
Scientists discovered that coffee berry borers worldwide share 14 bacterial species in their digestive tracts that degrade and detoxify caffeine. They also found the most prevalent of these bacteria has a gene that helps break down caffeine. Their research sheds light on the ecology of the destructive bug and could lead to new ways to fight it.
Bay Area National Laboratories Jointly Launch New Small Business Voucher Pilot for Emerging Cleantech CompaniesJuly 9th, 2015
Lawrence Berkeley National Laboratory, in partnership with Sandia National Laboratories/California and Lawrence Livermore National Laboratory, has been awarded $4.15 million by the Department of Energy to jointly launch a new small business voucher pilot.
Berkeley Lab Study Finds that Future Deployment of Distributed Solar Hinges on Electricity Rate DesignJuly 9th, 2015
Future distributed solar photovoltaic (PV) deployment levels are highly sensitive to retail electricity rate design, according to a newly released report by researchers from the U.S. Department of Energy’s Lawrence Berkeley National Laboratory (Berkeley Lab). The study also explores the feedback effects between retail electricity rates and PV deployment, and suggests that increased solar deployment can lead to changes in PV compensation levels that either accelerate or dampen further deployment.
Researchers have developed a new technique that enables sensitive and specific detection of molecules at the electrode/electrolyte interface. This new method uses diffraction from graphene gratings to overcome key difficulties associated with traditional optical spectroscopy that employs infrared probing of buried interfaces.