The Lawrence Livermore Nationality Laboratory (LLNL) was founded by the University of California in 1952. The US Department of Energy funds LLNL and is managed by Lawrence Livermore Nationality Security, LLC. LLNL's primary purpose is scientific research and investigations pertaining to national security, including weapons of mass destruction, non-destructive testing, nuclear power, all forms of energy including wind, solar and the like. LLNL is an expert on x-ray and the development of new techniques to evaluate radiation and a host of new imaging devices for testing devices.
Climate change, plant roots may accelerate carbon loss from soils (Update)
Soil, long thought to be a semi-permanent storehouse for ancient carbon, may be releasing carbon dioxide to the atmosphere faster than anyone thought, according to Oregon State University soil scientists.
New research re-creates planet formation, super-earths and giant planets in the laboratory
New laser-driven compression experiments reproduce the conditions deep inside exotic super-Earths and giant planet cores, and the conditions during the violent birth of Earth-like planets, documenting the material properties ...
Laboratory's role in underground explosives tests will help nation's detection capabilities
A Lawrence Livermore National Laboratory (LLNL) team played a leading role in fielding the recent Source Physics Experiment (SPE-4 Prime) detonated at the Nevada National Security Site (link is external) (NNSS).
Team deploys world's highest peak-power laser diode arrays
Lawrence Livermore National Laboratory (LLNL) has installed and commissioned the highest peak power laser diode arrays in the world, representing total peak power of 3.2 megawatts (MW).
Unlocking the secrets of star creation
On April 1, 1995, the Hubble Space Telescope (link is external), now celebrating its 25th anniversary, captured the famous images of the "Pillars of Creation" in the Eagle Nebula. Twenty years later to the day, the NIF Team ...
New research could lead to more efficient electrical energy storage
Lawrence Livermore researchers have identified electrical charge-induced changes in the structure and bonding of graphitic carbon electrodes that may one day affect the way energy is stored.
Promising new X-ray microscope poses technical challenges
You may think the aisles in your neighborhood convenience store are crowded, but they'd look positively spacious compared to the passageways in the NIF target bay.
Determining structural evolution under pressure
The study of material properties under the conditions of extreme high pressures and strain rates is very important for understanding meteor, asteroid or comet impacts, as well as in hyper velocity impact engineering and inertial ...
Black hole loses its appetite for gassy cloud
(Phys.org) —In a showdown of black hole versus G2 – a cloud of gas and dust – it looks like G2 won.
Thinner capsules yield faster implosions
In National Ignition Facility (NIF) inertial confinement fusion (ICF) experiments, the fusion fuel implodes at a high speed in reaction to the rapid ablation, or blow-off, of the outer layers of the target capsule. To reach ...