Univ. of California, Los Angeles chemical engineering researchers have created a new synthetic metabolic pathway for breaking down glucose that could lead to a 50% increase in the production of biofuels. The new pathway is intended to replace the natural metabolic pathway known as glycolysis, a series of chemical reactions that nearly all organisms use to convert sugars into the molecular precursors that cells need.
Inspired by how wireless communication networks use multiple radio frequencies to communicate with multiple users, researchers from the Univ. of California, Los Angeles have developed a new high-speed microscopy technique that is an order of magnitude faster than current fluorescence-imaging technologies.
Imagine an electronic display nearly as clear as a window, or a curtain that illuminates a room, or a smartphone screen that doubles in size, stretching like rubber. Now imagine all of these being made from the same material. Researchers from Univ. of California, Los Angeles have developed a transparent, elastic OLED that could one day make all these possible.
Since the discovery of the Van Allen radiation belts in 1958, space scientists have believed these belts encircling the Earth consist of two doughnut-shaped rings of highly charged particles. In February of 2013, a team of scientists reported the surprising discovery of a previously unknown third radiation ring. In new research, scientists have successfully modeled and explained the unprecedented behavior of this third ring.
Your smartphone now can see what the naked eye cannot: A single virus and bits of material less than one-thousandth of the width of a human hair. A team at the Univ. of California, Los Angeles has created a portable smartphone attachment that can be used to perform sophisticated field testing to detect viruses and bacteria without the need for bulky and expensive microscopes and lab equipment. The device weighs less than half a pound.
A lightweight and field-portable device invented at Univ. of California, Los Angeles that conducts kidney tests and transmits data through a smartphone attachment may significantly reduce the need for frequent office visits by people with diabetes and others with chronic kidney ailments.
In collaboration with teams in China, researchers in California have used the technology of single-cell RNA sequencing to track the genetic development of a human and a mouse embryo at a high level of accuracy. The technique could lead to earlier and more accurate diagnoses of genetic diseases, even when the embryo consists of only eight cells.
A team of researchers at the Univ. of California, Los Angeles have designed a system to encrypt software so that it only allows someone to use a program as intended while preventing any deciphering of the code behind it. This is known in computer science as "software obfuscation," and it is the first time it has been accomplished.
The ultimate dream come true for material scientists is to have the ability to make materials that can take on properties and behaviors to best suit our needs. But scientists first must truly understand the properties of cluster assembly through the individual cluster. Now, material scientists will have greater insight into the organizing principles that allow for the design of nanoscopic materials with specific band gap energy.
The genetic malady known as Fragile X syndrome is the most common cause of inherited autism and intellectual disability. Brain scientists know the gene defect that causes the syndrome and understand the damage it does in misshaping the brain's synapses—the connections between neurons. But how this abnormal shaping of synapses translates into abnormal behavior is unclear. Now, researchers believe they know.
Bacteria on a surface wander around and often organize into highly resilient communities known as biofilms. It turns out that they organize in a rich-get-richer pattern similar to the distribution of wealth in the U.S. economy, according to a new study.
A research team led by UCLA bioengineers has developed a way to program and control the shape of fluids flowing through pipes or conduits without the need to solve complex and time-consuming fluid-motion equations. This strategy could allow researchers to tap the vast, unrealized potential of fluid-flow applications.
Leaving the house in the morning may seem simple, but with every move we make, our brains are working to create maps of the outside world that allow us to navigate and remember where we are. Ultimately, the brain constructs its own pinpoint geographical chart that is far more precise than anything you'd find on Google Maps. But just how neurons make these maps of space has fascinated scientists for decades. Until now.
Many collisions occur between asteroids and other objects in our solar system, but scientists are not always able to detect or track these impacts from Earth. Space scientists at the University of California, Los Angeles have now devised a way to monitor these types of collisions in interplanetary space by using a new method to determine the mass of magnetic clouds that result from the impacts.
Excess heat, like that generated by extended use of a computer or other device, naturally creates what is known as a spin wave that can move a domain wall, the dividing line between magnetic materials that point in different directions. Using this phenomenon, scientists in California have demonstrated how to add power to a spintronics device using electron spin rather than electron charge.
Doctors have begun to categorize breast cancers into four main groups according to the genetic makeup of the cancer cells. Which category a cancer falls into generally determines the best method of treatment. But cancers in one of the four groups—called "basal-like" or "triple-negative" breast cancer (TNBC)—have been particularly tricky to treat. Researchers have developed a potential treatment for TNBC that uses nanodiamonds.
Taking a significant step toward improving the power delivery of systems ranging from urban electrical grids to regenerative braking in hybrid vehicles, researchers at the University of California, Los Angeles have synthesized a material that shows high capability for both the rapid storage and release of energy.
Like finally seeing all the gears of a watch and how they work together, researchers from the University of California, Los Angeles and the University of California, Berkeley have, for the first time ever, solved the puzzle of how the various components of an entire telomerase enzyme complex fit together and function in a 3D structure.
A team of scientists in the United States has combine three different imaging methods to produce 3D images and videos of a tiny platinum nanoparticle at atomic resolution that reveal new details of defects in nanomaterials that have not been seen before. Prior to this work, scientists only had flat, two-dimensional images with which to view the arrangement of atoms.
Researchers sponsored by Semiconductor Research Corporation (SRC) have developed a modeling process designed to simulate atomic-level etching with chemicals that are effective alternatives to widely used perfluorocarbon (PFC) gases. The novel approach will identify and evaluate green plasma chemistries for processing emerging memory/logic devices and through-silicon-via (TSV)-enabled technologies for the semiconductor industry.
Geoengineering, the use of human technologies to alter the Earth's climate system has emerged as a potentially promising way to mitigate the impacts of climate change. But such efforts could present unforeseen new risks. That inherent tension, argue two professors, has thwarted both scientific advances and the development of an international framework for regulating and guiding geoengineering research.
Electromagnetic devices, from power drills to smart-phones, require an electric current to create the magnetic fields that allow them to function. But researchers at the University of California, Los Angeles have developed a method for switching tiny magnetic fields on and off with an electric field—a sharp departure from the traditional approach of running a current through a wire. The new composite can control magneto-electric activity at a scale of just 10 nm.
While the demand for ever-smaller electronic devices has spurred the miniaturization of a variety of technologies, one area has lagged behind in this downsizing revolution: energy storage units, such as batteries and capacitors. Now, a team from University of California, Los Angeles may have changed the game by developing a groundbreaking technique that uses a DVD burner to fabricate microscale graphene-based supercapacitors.
A tiny capsule invented at a University of California, Los Angeles laboratory could go a long way toward improving cancer treatment. Devising a method for more precise and less invasive treatment of cancer tumors, the team has developed a degradable nanoscale shell to carry proteins to cancer cells and stunt the growth of tumors without damaging healthy cells.
By using tiny liquid lenses that self-assemble around microscopic objects, a team from University of California, Los Angeles has created an optical microscopy method that allows users to directly see objects more than 1,000 times smaller than the width of a human hair.