Researchers at Scripps Institution of Oceanography at the Univ. of California, San Diego have developed a method for greatly enhancing biofuel production in tiny marine algae. As reported online in the Proceedings of the National Academy of Sciences, Scripps graduate student Emily Trentacoste led the development of a method to genetically engineer a key growth component in biofuel production.
Officials at the University of California, San Diego announced that philanthropist T. Denny...
Cosmochemists at the Univ. of California, San Diego have solved a long-standing mystery in the...
The San Diego Supercomputer Center at the Univ. of...
Electron beam (e-beam) lithography enables researchers to write very small patterns on large substrates with a high level of precision. In the Nano3 cleanroom facility at the Univ. of California, San Diego’s Qualcomm Institute, a new Vistec e-beam writer is helping to develop nanoscale transistors for integrated electronics, as well as neural probes for brain diagnostics.
Scientists at the University of California, San Diego have designed tiny spherical particles to float easily through the bloodstream after injection, then assemble into a durable scaffold within diseased tissue. An enzyme produced by a specific type of tumor can trigger the transformation of the spheres into net-like structures that accumulate at the site of a cancer.
The tail of a seahorse can be compressed to about half its size before permanent damage occurs, engineers at the University of California, San Diego have found. The tail’s exceptional flexibility is due to its structure, made up of bony, armored plates, which slide past each other. Researchers are hoping to use a similar structure to create a flexible robotic arm equipped with muscles made out of polymer.
Engineers at the University of California, San Diego have invented a "nanosponge" capable of safely removing a broad class of dangerous toxins from the bloodstream. These nanosponges, which thus far have been studied in mice, can neutralize "pore-forming toxins," which destroy cells by poking holes in their cell membranes.
Java is one of the most common programming languages in use today, which is partly why researchers at the University of California, San Diego, have developed an immersive, first-person player video game designed to teach students in elementary to high school how to use the language effectively, despite never having been exposed to programming previously.
Gordon, the unique supercomputer launched last year by the San Diego Supercomputer Center at the University of California, San Diego, recently completed its most data-intensive task so far: rapidly processing raw data from almost one billion particle collisions as part of a project to help define the future research agenda for the Large Hadron Collider (LHC).
A team of researchers at the San Diego Supercomputer Center (SDSC) and the University of California, San Diego, has developed a highly scalable computer code that promises to dramatically cut both research times and energy costs in simulating seismic hazards throughout California and elsewhere. The accelerated makes heavier use of graphic processing units (GPUs) than CPUs.
Engineers at the University of California, San Diego are developing nanofoams that could be used to make better body armor; prevent traumatic brain injury and blast-related lung injuries in soldiers; and protect buildings from impacts and blasts. It’s the first time researchers are investigating the use of nanofoams for structural protection.
Computer scientists at the University of California, San Diego, and Google have developed a novel approach that allows the massive infrastructure powering cloud computing as much as 15 to 20% more efficiently. This novel model has already been applied at Google.
Researchers at the University of California, San Diego have engineered a green alga used commonly in laboratories, <em>Chlamydomonas reinhardtii</em>, into a rainbow of different colors by producing six different colored fluorescent proteins in the algae cells. Tagging algae with different kinds of fluorescent proteins could help sort different kinds of cells, allow scientists to view cellular structures like the cytoskeleton and flagella, or even to create “fusion proteins”.
Building on earlier pioneering work by researchers at the University of California, San Diego, an international consortium of university researchers has produced the most comprehensive virtual reconstruction of human metabolism to date. Scientists could use the model, known as Recon 2, to identify causes of and new treatments for diseases like cancer, diabetes and even psychiatric and neurodegenerative disorders.
Where do we come from? What is the universe made of? Will the universe exist only for a finite time or will it last forever? These are just some of the questions that University of California, San Diego physicists are working to answer in the high desert of northern Chile.
Computer scientists at the University of California, San Diego have built a small fleet of portable pollution sensors that allow users to monitor air quality in real time on their smartphones. The sensors could be particularly useful to people suffering from chronic conditions, such as asthma, who need to avoid exposure to pollutants.
Researchers at the University of California, San Diego School of Medicine and colleagues have proposed a new method that creates an ontology, or a specification of all the major players in the cell and the relationships between them. This computational model of the cell is made from large networks of gene and protein interactions, and is created automatically from large datasets, helping researchers see potentially new biological components.
Just like the bones that hold up your body, your cells have their own scaffolding that holds them up. This scaffolding, known as the extracellular matrix, or ECM, not only props up cells but also provides attachment sites, or "sticky spots," to which cells can bind, just as bones hold muscles in place. A new study by researchers in the U.S. and the U.K. found these sticky sports are distributed randomly throughout the ECM in the body, an important discovery with implications for researchers trying to figure out how to grow stems cells in the laboratory in ways that most closely mimic biology.
Reactive oxygen species (ROS), such as hydrogen peroxide, are produced by a chemical balance disturbance, such as inflammation, within a tissue. Because these ROS are indicators of many diseases, a non-invasive detection method would be very useful. Researchers at the University of California, San Diego have developed the first degradable polymer that is extremely sensitive to low but biologically relevant concentrations of hydrogen peroxide.
Chemists at the University of California, San Diego have developed a method that, for the first time, provides scientists the ability to attach chemical probes onto proteins and subsequently remove them in a repeatable cycle. Their achievement will allow researchers to better understand the biochemistry of naturally formed proteins in order to create better antibiotics.
Nanoengineers at the University of California, San Diego have developed a novel technology that can fabricate, in mere seconds, microscale 3D structures out of soft, biocompatible hydrogels. Near term, the technology could lead to better systems for growing and studying cells, including stem cells, in the laboratory. Long-term, the goal is to be able to print biological tissues for regenerative medicine.
A new study by researchers at the University of California, San Diego and Emory University has uncovered fundamental details about the hexamer structures that make up the tiniest droplets of water, the key component of life–and one that scientists still don’t fully understand.
Bioengineers at the University of California, San Diego have developed a method of modeling, simultaneously, an organism’s metabolism and its underlying gene expression. In addition to serving as a platform for investigating fundamental biological questions, this technology enables far more detailed calculations of the total cost of synthesizing many different chemicals, including biofuels.
Scientists have yet to fully unravel the mysteries of rainbows, but an international team of scientists have used simulations of these natural wonders to unlock the secret to a rare optical phenomenon known as the twinned rainbow. Unlike the more common double-rainbow, which consists of two separate and concentric rainbow arcs, the elusive twinned rainbow appears as two rainbows arcs that split from a single base rainbow.
Using just an upgraded desktop computer equipped with a relatively inexpensive graphics processing card, a team of computer scientists and biochemists at the University of California, San Diego has developed advanced GPU accelerated software and demonstrated, for the first time, that this approach can sample biological events that occur on the millisecond timescale.
In an important step towards more practical quantum information processing, researchers have demonstrated the first heralded single photon source made from silicon. This source complements two other recently developed silicon-based technologies—interferometers for manipulating the entanglement of photons and single photon detectors—needed to build a quantum optical circuit or a secure quantum communication system.
Modern research tools like supercomputers, particle colliders, and telescopes are generating so much data, so quickly, many scientists fear that soon they will not be able to keep up with the deluge. A team of computer researchers from universities and national laboratories are fighting to keep up, and have recently developed a tool that is able to query a massive 32 TB dataset in just 3 secs.
With a beam of infrared light, scientists have sent ripples of electrons along the surface of graphene and demonstrated that they can control the length and height of these oscillations, called plasmons, using a simple electrical circuit. This is the first time anyone has observed plasmons on graphene, and is an important step toward using plasmons to process and transmit information in spaces too tight to use light.
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