Lawrence Berkeley National Laboratory (Berkeley Lab) this week announced support from the Department of Energy that significantly expands Berkeley Lab’s research efforts in quantum information science, an area of research that harnesses the phenomenon of quantum coherence, in which two or more particles are so tightly entangled that a change to one simultaneously affects the other. Quantum information science seeks to utilize this phenomenon to hold, transmit, and process information.
The world’s cutting-edge particle accelerators are pushing the extremes in high-brightness beams and ultrashort pulses to explore matter in new ways. To optimize their performance – and to prepare for next-generation facilities that will push these extremes further – scientists have devised a new tool that can measure how bright these beams are, even for pulses that last only quadrillionths or even quintillionths of a second.
A new study calls for the U.S. to step up its laser R&D efforts to better compete with major overseas efforts to build large, high-power laser systems, and notes progress and milestones at the BELLA Center at the Department of Energy’s Berkeley Lab, and other sites.
A Berkeley Lab-led report highlights a new, compact technique for producing beams with precisely controlled energy and direction that could “see” through thick steel and concrete to more easily detect and identify concealed or smuggled nuclear materials for national security and other applications.
Teams of researchers working in a multi-lab collaboration have designed, built, and tested two magnetic devices called superconducting undulators. The effort could lead to a next generation of more powerful, versatile, compact, and durable X-ray lasers.
The first shipment of powerful magnetic devices for a next-generation laser project arrived at their destination on Wednesday after a nearly 3,000-mile journey. Berkeley Lab is overseeing the development and delivery of these devices, called undulator segments.
A set of new laser systems and proposed upgrades at Berkeley Lab’s BELLA Center will propel long-term plans for a more compact and affordable ultrahigh-energy particle collider.
Powerful supercomputer simulations of high-energy collisions between atomic cores provide new insights about the complex structure of a superhot fluid called the quark-gluon plasma.
Particle accelerators are on the verge of transformational breakthroughs—and advances in computing power and techniques are a big part of the reason. Long valued for their role in scientific discovery and in medical and industrial applications such as cancer treatment, food sterilization and drug development, particle accelerators, unfortunately, occupy a lot of space and carry
Five researchers at Berkeley Lab were named today as recipients of the Early Career Research Program managed by the U.S. Department of Energy’s Office of Science. The program is designed to bolster the nation’s scientific workforce by providing support to exceptional researchers during the crucial early career years, when many scientists do their most formative work.