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Search indexed NASA NTRS and DOE OSTI research on propulsion, heat transfer, battery materials and energy systems. Follow report and document links to the original sources.
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Identifying Limitations of the Lithium Metal Anode through Laser Plasma Focused Ion Beam Cross-Sectional Imaging.
Abstract not provided.
Overview of Sandia?s Focused Ion Beam Capabilities and the Development of Novel Sources for Implantation and Irradiation.
Abstract not provided.
Focused Ion Beam Characterization of Low Melting Point Metals at Cryogenic Temperatures.
Abstract not provided.
Focused ion beam preparation of low melting point metals: Lessons learned from Pb-Sn and Indium.
Abstract not provided.
Ion-Beam Induced Structural Transformations in Austenitic Stainless Steels.
Abstract not provided.
Understanding lithium metal anodes in batteries through cryogenic focused ion beam and electron microscopy techniques.
Abstract not provided.
Expanding the Energy Range from eV to MeV Enabling Novel Focused Ion Beam Nanofabrication and Modification.
Abstract not provided.
Ion Beam Synthesis of Layer-Tunable and Transfer-Free Graphene for Device Applications
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Focused Ion Beam Nano-thermometry
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In-situ Monitoring of Two-Dimensional Transistors under Low Energy Focused Ion Beam Irradiation
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Prospects of Full-scale Device Characterization via Ultra Short Pulsed Lasers with Dual Focused Ion Beams
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Chemisorbed hydrogen on tungsten materials: atomic scale analysis using low energy ion beams
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Hard x-ray imaging and characterization of staged z-pinch plasmas in order to exclude ion beams as cause of fusion
Prior to the start of the INFUSE project, a 1-D x-ray device had been developed to detect > 5 keV x-rays and, by using the device as a pinhole camera, determine the location of the source of these x-rays. The system was also used in a non-camera mode to measure the energy of the X-rays by having different thicknesses of attenuating material on different pixels. This dual-purpose had been used in three plasma experiments: the laboratory magnetized plasma jet at Caltech, the laboratory solar nanoflare at Caltech, and at the 500 kA staged Z-pinch (CESZAR) at UCSD. Preliminary measurements at the UCSD facility indicated that hard x-rays with energies ranging from ~27 to over 100 keV were created and that these x-rays likely originated at the Z-pinch’s anode. These preliminary data also indicated that the x-rays’ origin was coincident with the moment of peak compression. The major goal of the INFUSE proposal was to confirm these preliminary results. This confirmation was to be made by improving the imaging capability to two dimensions, increasing the time resolution of the camera, and using the x-ray diagnostic alongside time-resolved neutron detectors.
Temperature Dependent Electron Emission in Focused Ion Beam Microscopes
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