Using a bioengineered protein-based technology, LLNL scientists and collaborators develop a new separation technique for rare-earth elements (REE).

LLNL scientists and collaborators quantify and model the emergent temperature sensitivity of soil organic carbon.

LLNL researchers and partners develop a new storage method for excess renewable electricity from wind and solar sources.

LLNL scientists publish a paper on the the mysterious world of pitting corrosion in additively manufactured (3D-printed) stainless steel 316L in seawater.

A team of LLNL scientists conducts multi-million atomic molecular-dynamics simulations to uncover required temperature and pressure conditions for super-diamond creation.

LLNL has received $1 million to explore technologies that stimulate hydrogen production from mineral deposits found in the subsurface.

LLNL employees, participating in five project teams, were recognized with Department of Energy (DOE) Secretary’s Honor Awards.

A Lawrence Livermore National Laboratory team has uncovered a new thermal decomposition pathway for an important explosive compound.

A multi-disciplinary team used chemical transient kinetics and microkinetic modeling to understand a key reaction in electrochemical CO2 conversion.

The details of the historic Dec. 5, 2022, fusion ignition experiment are presented in the Feb. 5, 2024, issue of Physical Review Letters.