Sackler Sabbatical Exchange recipient Hiten Madhani studies how genome cutting machines in cells, called spliceosomes, are able to pluck genes away from other sequences of “letters” in strands of RNA.
Chris Chang, who is part of the Sackler Sabbatical Exchange Program, carries out experiments to find proteins that bind to copper and may influence the storage and burning of fat.
Water and energy are tightly linked in the 21st century. Per Peterson’s research seeks to develop water-saving ways of cooling energy plants, both nuclear and solar.
Environmental engineer David Sedlak explores the serious water treatment, supply and security challenges we face, and proposes how to meet them.
Ashok Gadgil is refining an affordable water treatment technology to produce fresh drinking water from brackish water, one of many projects supported by CERC-WET.
Bakar Fellow Pieter Abbeel studies deep learning in robots. The robot BRETT (Berkeley Robot for Elimination of Tedious Tasks) has mastered a range of skills, including folding laundry, knot-tying, and basic assembly.
Bakar Fellow Ronald Rael is advancing a type of 3-D printing that could add more beauty, variety and sustainability to building designs.
Bakar Fellow Holger Müller is redesigning an instrument known as an atom interferometer, capable of making extremely precise measurements of distance and gravity.
The Bakar Fellows Program supports Michael Lustig’s collaborations with clinicians and industry to speed adoption of the new MRI imaging strategies.
Bakar Fellow Ke Xu’s imaging technology allows researchers to distinguish between interacting proteins with exceptional color and image resolutions.
To Michael Jordan, the smart way to extract and analyze key information embedded in mountains of “Big Data” is to ignore most of it. Instead, zero in on collections of small amounts of data.
Joe Hellerstein and his students developed a new programming model for distributed computing which MIT Technology Review named one of the 10 technologies “most likely to change our world”.
The AMP Lab, launched in 2011 by Michael Franklin and colleagues in computer science, has already had an outsized impact on industry.
Bin Yu’s statistical strategies work hand in hand with intense computation to penetrate storms of data.
Jasjeet Sekhon, a Signatures Innovation Fellow, has developed statistical approaches and new algorithms to provide simpler and much cheaper ways to assess the effectiveness of persuasion strategies.
Alexei Pozdnoukhov, a Signatures Innovation Fellow, leads research to use cellular data to aid traffic planning and operations. Fully developed, the technology could aid both traffic control and planning to keep pace with changes in transportation habits.
Drought and the growing water demands of agriculture and a changing climate are creating a “knife edge” of survival for young salmon and steelhead, says UC Berkeley fish ecologist Stephanie Carlson. She is working to determine minimum water levels needed to sustain the fish.
Researcher Grace O’Connell, an assistant professor of mechanical engineering at UC Berkeley, is advancing ways to grow human disc tissue — the spongy, protective material between vertebrae — and other engineered cartilage surfaces in a lab.
Philomathia Innovation Seed Fund recipients Catherine Wolfram and Meredith Fowlie carried out a rigorous study that found surprisingly low savings relative to costs in part of a nationwide effort to improve home energy-efficiency.
Paul Wright is the first director of the Berkeley Energy and Climate Institute (BECI) at UC Berkeley.
Philomathia Innovation Seed Fund recipient Eric Brewer works with tech savvy students in electrical engineering and computer science, urban planning, business, and economics to help developing countries gain access to affordable energy.
Philomathia Innovation Seed Fund recipient Edward Miguel applies the tools of economics to such social issues as access to affordable energy and the possible links between climate and conflict.
Neuroscientist Linda Wilbrecht can observe “rewiring” in the living brain using an imaging instrument called a twophoton laser scanning microscope, which has a resolution better than 1/10,000 of an inch.
Plant ecologist David Ackerly has calculated that some animals and plants would need to migrate as much as four miles a year to track their preferred temperature in a rapidly warming climate.
If early intervention is key, then so is the ability to detect even the slightest sign of neurological damage. The William Jagust Lab is using statistical and computational approaches to refine PET scan sensitivity to identify a possible Alzheimer precursor.
Rather than trying to quiet the body’s defenses against viruses, David Schaffer has favored a kind of intelligent design approach to modify the virus. Known as directed evolution, the strategy uses genetic engineering to find variations in the virus that will allow it to effectively deliver drugs to target cells.
Shawn Shadden integrates diagnostic imaging with computational modeling to better diagnose stroke severity in patients.
Laura Waller is working on computational imaging methods for quantitative phase microscopy, which enables one to map the shape and/or density of invisible samples in a non-invasive way. Her group is developing simple experimental architectures and efficient post-processing algorithms for phase recovery, applied in a variety of scientific and industrial settings.
Andreas Martin has developed novel systems and strategies to screen for compounds that selectively inhibit protein turnover in the cell and may lead to new drugs against cancer.
John Dueber is working to employ metabolite protecting groups for a sustainable indigo dyeing process. The new technology has the potential to transform the Jeans (and related textile) dyeing industry into a "green business" using dye processes that would comply with modern regulations ensuring environmental safeguards.
Ana Claudia Arias has developed a technology to print lightweight electronic circuits and devices onto thin films.
Roberto Zoncu investigates cellular energy flux. In researching how cells sense their own nutrients, Zoncu has found that a particular enzyme plays a vital role in making sure that a cell has the proper balance of nutrients and energy.
Sanjay Kumar adapts bioengineering strategies for studies in 3D cell environments to reveal how and why cancer cells invade the way they do.
Scott Baraban is collaborating with Berkeley researchers to find cures for childhood epilepsies.
Solomon Hsiang's research provides a “ground–level” view of climate’s current and likely future role in such social stresses as child mortality, crime and social upheaval.
Ehud Isacoff and his colleagues explore the brain at several levels critical to ultimately understand how memories form and what can threaten their demise. He is the Director of Berkeley’s Helen Wills Neuroscience Institute.
Jennifer Doudna and her colleagues showed that CRISPR/Cas9, can be used with great precision to selectively disable or add several genes at once in human cells, offering a potent new tool to understand and treat complex genetic diseases.
Ben Recht was recently honored by the White House with a Presidential Early Career Award for Scientists and Engineers, recognizing some of the most promising young researchers.
Feng Wang is studying how electrical fields modulate the optical properties of a number of materials. The flip of a light switch – a nano-scale light switch – may some day dramatically boost the speed of data transmission, from streaming movies to accelerating the most data-intense computation.
Mary Wildermuth is developing plant breeding strategies that can weaken the effects of powdery mildew. If not controlled, powdery mildew is a fast spreading fungus that can cause billions of dollars of crop damage in California.
Daniela Kaufer made a startling discovery about the effect of psychological stress on the brain a few years after serving in the Israeli army during the first Gulf War.
Felix Fischer and fellow researchers are fabricating strips of carbon only one-atom thick and less than 15 atoms wide, the aim is to create molecular-scale “wires” capable of carrying information thousands of times faster than is possible today.
Thomas Immel and his team at the Space Sciences Lab will design, build and operate two instruments and oversee development of two others to be loaded on a solar-powered satellite for a two-year science mission tentatively set to launch in 2017.
Tanja Cuk is testing how to optimize new devices for both power delivery and energy storage. Her focus is an alternative to conventional batteries, called a “supercapacitor,” which could deliver more power than current batteries.
Ants normally distinguish friend from foe by detecting colony-specific molecules called pheromones that coat their bodies. Neil Tsutsui has identified the recognition pheromones and other chemical signals, and has shown in experiments that the ants’ behavior can be tweaked by exposing them to identical, environmentally harmless synthetic pheromones.
Wresting New Tricks From a Python: Fernando Perez Wins 2012 Award for the Advancement of Free Software
In 2001 when Fernando Pérez was still a graduate student in particle physics, he kept bumping into walls with a popular programming language he was using called Python, as he tried to analyze an elusive theoretical phenomenon known as the quantum vacuum.
Michael Rape studies ubiqutins that form chains, “like pearls on a string,” he says. In 2008, his lab discovered a new member of this chain configuration and determined how an enzyme called Ube2S is able to assemble it inside cells. Without the Ube2S enzyme and the ubiquitin chain, he found, cells cannot divide. But with too much Ube2S – and too many ubiquitin chains – cell division runs out of control.
Lab tests that detect prostate cancer can’t reveal if the cancer poses a real risk. It looks for elevated levels of a protein called PSA, but about 80 percent of cancers that generate high PSA levels grow so slowly and may never need treatment. New research by Amy Herr points the way to a much more refined assessment of proteins and the promise of better diagnosis and treatment of a range of diseases.
It still sounds futuristic, but the time is approaching when people paralyzed by stroke or spinal cord injury will be able to regain the experience of movement. Neuroengineer Jose Carmena and bioengineer Michel Maharbiz have joined forces in a project supported by the Bakar Fellows Program to move this technology from the laboratory to the real world.