The National Science Foundation (NSF) has awarded the San Diego Supercomputer Center (SDSC) at UC San Diego a supplemental grant valued at almost $2.4 million to extend operations of its Comet supercomputer by an additional year, through March 2021. The extension brings the value of the total Comet program to more than $27 million.
In a study published online July 25 in the journal Nature, University of California San Diego School of Medicine researchers identified a signaling pathway that activates the NLRP3 inflammasome implicated in several severe chronic inflammatory disorders.
A concept known as “percolation” is helping microbiologists at UC San Diego explain how communities of bacteria can effectively relay signals across long distances. Once regarded as simple clusters of microorganisms, communities of bacteria have been found to employ a strategy we use to brew coffee and extract oil from the sea. Percolation helps the microscopic community thrive and survive threats, such as chemical attacks from antibiotics.
In a new study, published in this week’s issue of Cell Reports, researchers at the University of California San Diego School of Medicine scrutinized the whole genome sequences of 18 induced pluripotent stem cell lines derived from skin cells that they had reprogrammed to identify and characterize somatic mutations.
The University of California San Diego has been awarded $11.3 million over four years from DARPA to lead a multi-institution project which aims to develop electronic design automation tools for 24-hour, no-human-in-the-loop hardware layout generation.
Like small-scale Legos clicking into place, nature autonomously puts together microscopic building blocks. Living systems are biochemical machines that excel at building and moving their parts. Just as machines need energy in some form to operate, living systems are energized by consuming “fuel”—substances or food—reliably. The human body, for example, contracts muscles by the motion of tiny nanomotors—molecular devices that convert energy at the nanoscale scale to generate movement at the macroscale. The ability to mimic nature’s self-assembly would revolutionize science’s approach to synthesizing materials that could heal, contract or reconfigure.
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