Science and Technology Highlights

LLNL biologists David Baliu-Rodriguez (left) and Mike Malfatti examine the Accelerator Mass Spectrometry results showing the quantification of carbon-14 labeled-subedatex in tissue.
// S&T Highlights

LLNL researchers discover a promising new treatment that can be a boon to doctors and medical professionals dealing with the crisis of fentanyl.

Deputy Director for Science and Technology Pat Falcone, right, and VTT Chief Executive Officer Antti H.A. Vasara, sign the MOU on Oct. 1.
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LLNL and the VTT Technical Research Centre of Finland sign a memorandum of understanding with a focus on strengthening the science and technology (S&T) capabilities between the two entities.

A Lawrence Livermore National Laboratory-led team was awarded $3.4M to develop new alloys for first wall fusion reactors and enable commercial fusion energy through ARPA-E’s Creating Hardened And Durable fusion first Wall Incorporating Centralized Knowledge (CHADWICK) program.
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An LLNL-led team is awarded $3.4 million to develop new alloys for first wall fusion reactors and enable commercial fusion energy.

A team from Lawrence Livermore National Laboratory, Stanford University and the University of Pennsylvania introduced a novel wet chemical etching process that modifies the surface of conventional metal powders used in 3D printing. By creating nanoscale grooves and textures, the researchers reportedly increased the absorptivity of these powders by up to 70%, allowing for more effective energy transfer during the laser melting 3D printing process.
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LLNL researchers and academic partners develop a groundbreaking technique to enhance the optical absorptivity of metal powders used in 3D printing.

Researchers from Lawrence Livermore National Laboratory (LLNL) and the Korean Institute of Science and Technology attend a multi-day workshop at LLNL to explore opportunities for expanded research collaborations.
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Researchers gather for a three-day workshop at LLNL to discuss progress on shared research projects and explore collaboration opportunities on clean energy technologies, climate resilience and related data-science solutions.

Atomistic simulations, machine learning potential and accelerated degradation experiments reveal the complex role of CO2 in the oxidation kinetics of amine-functional sorbents for carbon capture.
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LLNL researchers and collaborators make a significant breakthrough in understanding the impact of carbon dioxide (CO2) on the stability of amine-functionalized porous solid materials. 

Three major approaches to durable carbon removal.  The figure shows the major carbon fluxes that must be accounted for when evaluating the net amount of carbon removal that can be attributed to a project.
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LLNL scientists and collaborators look into the state of evaluating the climate impact of CDR projects (also referred to as carbon accounting). 

Femtosecond X-ray snapshot of shock-compressed zirconium.
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LLNL scientists and collaborators compress single crystal samples of the metal zirconium, yielding surprising results. 

Vice President Sang Yup Lee from the Korea Advanced Institute of Science and Technology (KAIST) and Glenn Fox, principal associate director at LLNL, signed a memorandum of understanding in June 2024, to collaborate on basic science research regarding hydrogen and other carbon-neutral technologies.
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LLNL leaders and the Korea Advanced Institute of Science and Technology (KAIST) sign a memorandum of understanding to expand collaborations related to hydrogen and other low-carbon energy technology.

Lawrence Livermore National Laboratory researchers, including (from left) Saptarshi Mukherjee, Johanna Vandenbrande and Ethan Rosenberg, have introduced an innovative new approach to 3D printing using microwave energy to cure materials, opening the door to a broader range of materials than ever before.
// S&T Highlights

LLNL researchers introduce an innovative new approach to 3D printing using microwave energy to cure materials, opening the door to a broader range of materials than ever before.