Scientists at Berkeley Lab have demonstrated a new technique that could improve the performance of atomically thin semiconductors for next-generation electronics such as optoelectronics, thermoelectrics, and sensors.
Paul Alivisatos, an internationally renowned chemist who holds joint appointments with Berkeley Lab and UC Berkeley, has been awarded the 2021 Priestley Medal, the highest honor of the American Chemical Society.
A research team including scientists from Berkeley Lab has developed a technique that produces atomic-scale 3D images of nanoparticles tumbling in liquid between sheets of graphene, the thinnest material possible.
Researchers at Berkeley Lab and UC Berkeley have developed an ultrathin switch for computer memory and processing applications. Their findings have implications for further miniaturizing computing devices and personal electronics without loss of performance.
Scientists have invented a new “synthetic antibody” that could make screening for diseases easier and less expensive than current go-to methods. Writing in the journal Nano Letters, a team led by Markita Landry of Berkeley Lab and UC Berkeley describes how peptoids – synthetically produced molecules, first created by Ron Zuckermann at Berkeley Lab’s Molecular Foundry, that
Planck’s Law, which describes electromagnetic radiation from heated bodies, forms the basis of quantum theory. However, with the advent of micro- and nanotechnology, it is easy to fabricate materials where Planck’s Law will not hold. In a study published in Nature Communications, researchers at Berkeley Lab set out to explore how deviations from Planck’s Law
A research team has demonstrated how light-emitting nanoparticles, developed at Berkeley Lab, can be used to see deep in living tissue. Researchers hope they can be made to attach to specific components of cells to serve in an advanced imaging system that can pinpoint even single cancer cells.
A team led by scientists at Berkeley Lab found a way to make a liquid-like state behave more like a solid, and then to reverse the process.
In the quest to realize artificial photosynthesis to convert sunlight, water, and carbon dioxide into fuel – just as plants do – researchers need to not only identify materials to efficiently perform photoelectrochemical water splitting, but also to understand why a certain material may or may not work. Now scientists at Berkeley Lab have pioneered a technique that uses nanoscale imaging to understand how local, nanoscale properties can affect a material’s macroscopic performance.
Tracy Mattox, a researcher in the Molecular Foundry’s Inorganic Nanostructures Facility at the Department of Energy’s Lawrence Berkeley National Laboratory (Berkeley Lab), is an expert in colloidal inorganic syntheses. If you’re not sure what that is, you may want to check out one of Mattox’s side projects — she’s authored an e-book series featuring “Nancy