Berkeley Lab researchers found that the sticky residue left behind by tobacco smoke led to changes in weight and blood cell count in mice. These latest findings add to a growing body of evidence that thirdhand smoke exposure may be harmful.
Berkeley Lab is set to receive $4.6 million over four years as part of an ongoing, federally funded project to create a comprehensive catalog for fundamental genomics research. This latest expansion of the Encyclopedia of DNA Elements (ENCODE) project, or ENCODE 4, is funded by the National Human Genome Research Institute.
Extending the roots of team science at its birthplace, Berkeley Lab will soon bring together researchers from the DOE Joint Genome Institute with those from the Systems Biology Knowledgebase (KBase) under one roof. The groundbreaking for the Integrative Genomics Building (IGB) today celebrates the future colocation of two partnering scientific user community resources and launches construction of the first building in the long-term vision for a consolidated biosciences presence on Berkeley Lab’s main site.
New images are providing the first visual evidence of a long-postulated physical link by which genes can receive mechanical cues from its microenvironment. Created by integrating six different imaging techniques, the images show thread-like cytofilaments reaching into and traversing a human breast cell’s chromatin-packed nucleus.
Berkeley Lab scientists are developing new ways to see the unseen. Here are seven imaging advances (recently reported in our News Center) that are helping to push science forward, from developing better batteries to peering inside cells to exploring the nature of the universe. 1. Seeing DNA nanostructures in 3-D DNA segments can serve as a
Scientists from Berkeley Lab and PNNL have found that genes and early environment play big roles in shaping the gut microbiome. The microbes retained a clear “signature” formed where the mice were first raised, and the characteristics carried over to the next generation. The findings could potentially be used to develop designer diets optimized to an individual’s microbiome.
An international team of scientists is providing new insight into the process by which plants use light to split water and create oxygen. In experiments led by Berkeley Lab scientists, ultrafast X-ray lasers were able to capture atomic-scale images of a protein complex found in plants, algae, and cyanobacteria at room temperature.
Berkeley and Illinois researchers have bumped up crop productivity by as much as 20 percent by increasing the expression of genes that result in more efficient use of light in photosynthesis. Their work could potentially be used to help address the world’s future food needs.
Scientists have produced detailed 3-D visualizations that show an unexpected connectivity in the genetic material at the center of cells, providing a new understanding of a cell’s evolving architecture.
Berkeley Lab scientists have found a way to engineer the atomic-scale chemical properties of a water-splitting catalyst for integration with a solar cell, and the result is a big boost to the stability and efficiency of artificial photosynthesis. The research comes out of the Joint Center for Artificial Photosynthesis (JCAP), established to develop a cost-effective method of turning sunlight, water, and carbon dioxide into fuel.