Researchers from Caltech, UC Berkeley, and the Berkeley Synchrotron Infrared Structural Biology Imaging Program (BSISB) reported a more efficient way to collect “high-dimensional” infrared images – where each pixel contains rich physical and chemical information. The microscopy experiments were carried out at Berkeley Lab’s Advanced Light Source.
COSMIC, a multipurpose X-ray instrument at Berkeley Lab’s Advanced Light Source, has made headway in the scientific community since its launch less than 2 years ago, with groundbreaking contributions in fields ranging from batteries to biominerals.
Berkeley Lab scientists have captured real-time, high-resolution videos of liquid structures taking shape as nanoparticles form a solid-like layer at the interface between oil and water. Their findings could help advance all-liquid robotics for targeted cancer drug delivery and other applications.
A Berkeley Lab intern and his mentor develop an algorithm that will extract better structures from low-quality crystallography diffraction data
A trio of Berkeley Lab scientists has been awarded a grant by the Gordon and Betty Moore Foundation to develop a unique microscopy technology that can be used to study symbiosis in aquatic microbes – biological relationships that have a large influence on ecosystems and the planet’s climate. The grant is part of a three-year, $19-million project within the Foundation’s Symbiosis in Aquatic Systems Initiative.
Blurry photo? There’s a photoshop tool for that. Blurry molecular structure map? Now, there’s a tool for that too.
Sometimes, when something is broken, the first step to fixing it is to break it even more. Scientists have discovered this is the case for a human DNA repair protein that functions by marking and then further breaking damaged DNA. Their surprising findings have provided much-needed insight into how DNA repair works in healthy cells, as well as how different mutations can translate into different diseases and cancer.
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.
To better understand how a liquid interacts with the surface of a solid, Berkeley Lab researchers developed a platform to explore these interactions under real conditions at the nanoscale using a technique that combines infrared light with an atomic-scale probe.
A superfast detector installed on an electron microscope at Berkeley Lab’s Molecular Foundry will reveal atomic-scale details across a larger sample area than could be seen before, and produce movies showing chemistry in action and changes in materials.