Researchers used a new technology called scanning atomic electron tomography, which they developed.
The experiments, led by Professor Amander Clark, revealed a detailed timeline for when germ cells form.
Nano-related science and art were on display during the UCLA-MindshareLA event, which underscored UCLA’s commitment to share the knowledge it’s creating beyond Westwood.
The first event, on Feb. 1, will feature presentations by three members of the California NanoSystems Institute.
UCLA scientists James Gimzewski and Adam Stieg are part of a research team that has taken a major stride toward creating thinking machines.
Report from Web of Science Group identifies researchers in 21 fields whose work was most often referenced by other papers.
The California NanoSystems Institute will feature a series of educational hands-on demonstrations throughout campus on Wednesday Oct. 9.
The invention relies in part on another UCLA invention, photonic time stretch.
Research brief: UCLA researchers developed a drug delivery system that can break through the blood-brain barrier.
The new process creates a material that’s at least five times tougher than any glass currently available.
Results of the UCLA-led study contradict a long-held classical theory.
The UCLA team's results could lead to ways to improve antiviral therapy.
In tests, perovskite-based cells made with the same chemical found in coffee maintained their power conversion efficiency for several weeks longer than those without it.
The findings answer questions that have been sought ever since 2005, when two Australian scientists won a Nobel Prize for their discovery of H. pylori and its role in gastric conditions.
Energy created by the movement of two materials can be harvested from the surrounding environment and converted to electricity by a triboelectric nanogenerator.
Denis Chetverikov, Yongjie Hu and Aaswath Raman are among 126 early-career scientists and scholars from across the United States and Canada selected to receive fellowships.
The new imaging technique may lead to improved functionality of devices such as personal computers and smartphones.
The research provides the first direct evidence of the proteins moving through PTEX, the protein complex that transports malaria proteins into the red blood cell.
The characters’ extraordinary abilities are pure science fiction. Or are they?
The device, designed by UCLA Engineering researchers, operates across a broad range of light, processes images more quickly and is more sensitive to low levels of light than current models.
“The center will provide CNSI with the cutting-edge technology to help us maintain our leadership in biophotonics research,” said UCLA’s Laurent Bentolila.
Researchers used cryo electron microscopy to obtain the first atomic model of the particle, which is made up of more than 3,000 protein molecules comprising tens of millions of atoms.
The scientists are working on a way to stop heart disease in patients with this severe muscular dystrophy, which affects one in 5,000 male babies in the U.S.
The new technique produces better images than current methods, and it’s easier to implement because it requires fewer measurements and performs computations faster.
The system is made of inexpensive components, including an image sensor chip that costs just a few dollars apiece and is like the ones used in mobile phone cameras.