Journal Covers

Nature cover with text "The Heat is On" and image of a metal spoon-shaped part
// Journal Covers
Livermore researchers report on the achievement of a burning plasma at Livermore's National Ignition Facility.
Journal cover with image of earth with simulation model superimposed on lower half
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Highlights implementation of a new global 3.25-kilometer version of the E3SM atmosphere model and its behavior in a 40-day northern-hemisphere wintertime simulation.
Cover of Materials Today journal with illustration of spheres and streak ending at hot spot
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Demonstrates a multiscale simulation framework coupling that can quantitatively predict tailored microstructure formation in laser processed Ti-Nb.
Two rows of four images of graphs with complex curves
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This study computationally explores using high-resolution inelastic x-ray scattering at x-ray free electron laser facilities to probe the temperature of a material in high-pressure shock or ramp compression.
Cover of book with title-case lettering
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This book includes chapters on machine learning, image analysis, and data segmentation contributed by Livermore scientists.
Advanced Materials journal cover with transparent plastic hollow square tube
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The authors describe inks for transparent elastomers that are formulated by matching the refractive index of silica and polysiloxanes.
Journal cover Science Advances with vertical laser beam impacting surface with spheres at bottom
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Research reported here shows that Bessel beams offer unprecedented control over the spatiotemporal evolution of the melt pool in stainless steel (SS 316L) in comparison to Gaussian beams.
Cover text and abstract multicolored design of world map
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Five Livermore scientists contributed to this report.
Book cover with multi-colored abstract image
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Livermore scientists contributed two chapters to this book, one on capacitive deionization (CDI), and one on transport in carbon nanotube pores.
Artificial vasculature with tree-like structure
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Paper introduces the concept of cellular fluidics: a platform of unit-cell-based, three-dimensional structures—enabled by emerging 3D printing methods—for the deterministic control of multiphase flow, transport and reaction processes.