Articles tagged with Local Linear Embedding
Researchers have discovered two new phenomena - interspecies radiative transition and breakdown of dipole selection rule - in the transport of radiation in atoms and molecules under high-energy-density physics conditions. This finding enhances understanding of HEDP and could lead to insights into how stars evolve in the universe.
Researchers at the University of Rochester's Laboratory for Laser Energetics developed a novel method to shape intense laser light, accelerating electrons to record energies in very short distances. This technology could allow scientists to perform tabletop experiments to probe the Higgs boson and explore extra dimensions.
Researchers at the University of Rochester have directly demonstrated how laser beams modify plasma conditions, affecting energy transfer in fusion experiments. This breakthrough validates a longstanding theory and improves predictive capability for integrated implosion simulations.
A team of scientists has created a stable, supersonic, and strongly magnetized plasma jet in a laboratory setting. The team successfully used advanced diagnostics to confirm the jet's formation and characterize its properties.
Scientists at the University of Rochester's LLE have successfully turned a liquid metal into a plasma, exhibiting classical properties at high temperatures. This discovery has implications for better understanding stars and planets, as well as realizing controlled nuclear fusion, a promising alternative energy source.
Rochester researchers have developed a technique using the flying focus concept to better control the intensity of lasers over longer distances. By capturing fast-moving movies, they can manipulate the focal velocity and produce high-intensity light sources with novel wavelengths.
Researchers successfully created conditions for a fusion yield five times higher than current record using the OMEGA laser. The direct-drive approach, used by LLE scientists, is promising for achieving fusion as an energy source.
Researchers aim to develop more efficient fusion reactions using laser technology, leveraging Sandia's Z accelerator and LLE's OMEGA laser facility to study intermediate-density plasmas. The goal is to improve techniques for compressing and heating fuel to increase efficiency and understand subsidiary processes.