Matches in DBpedia 2016-04 for { ?s ?p "The hard X-ray nanoprobe at the Center for Nanoscale Materials (CNM), Argonne National Lab advanced the state of the art by providing a hard X-ray microscopy beamline with the highest spatial resolution in the world. It provides for fluorescence, diffraction, and transmission imaging with hard X-rays at a spatial resolution of 30 nm or better. A dedicated source, beamline, and optics form the basis for these capabilities. This unique instrument is not only key to the specific research areas of the CNM; it will also be a general utility, available to the broader nanoscience community in studying nanomaterials and nanostructures, particularly for embedded structures.The combination of diffraction, fluorescence, and transmission contrast in a single tool provides unique characterization capabilities for nanoscience. Current hard X-ray microprobes based on Fresnel zone plate optics have demonstrated a spatial resolution of 150 nm at a photon energy of 8-10 keV. With advances in the fabrication of zone plate optics, coupled with an optimized beamline design, the performance goal is a spatial resolution of 30 nm. The nanoprobe covers the spectral range of 3-30 keV, and the working distance between the focusing optics and the sample are typically in the range of 10–20 mm. File:Nanoprobe.jpg"@en }
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- X-ray_nanoprobe abstract "The hard X-ray nanoprobe at the Center for Nanoscale Materials (CNM), Argonne National Lab advanced the state of the art by providing a hard X-ray microscopy beamline with the highest spatial resolution in the world. It provides for fluorescence, diffraction, and transmission imaging with hard X-rays at a spatial resolution of 30 nm or better. A dedicated source, beamline, and optics form the basis for these capabilities. This unique instrument is not only key to the specific research areas of the CNM; it will also be a general utility, available to the broader nanoscience community in studying nanomaterials and nanostructures, particularly for embedded structures.The combination of diffraction, fluorescence, and transmission contrast in a single tool provides unique characterization capabilities for nanoscience. Current hard X-ray microprobes based on Fresnel zone plate optics have demonstrated a spatial resolution of 150 nm at a photon energy of 8-10 keV. With advances in the fabrication of zone plate optics, coupled with an optimized beamline design, the performance goal is a spatial resolution of 30 nm. The nanoprobe covers the spectral range of 3-30 keV, and the working distance between the focusing optics and the sample are typically in the range of 10–20 mm. File:Nanoprobe.jpg".
- Q8041576 abstract "The hard X-ray nanoprobe at the Center for Nanoscale Materials (CNM), Argonne National Lab advanced the state of the art by providing a hard X-ray microscopy beamline with the highest spatial resolution in the world. It provides for fluorescence, diffraction, and transmission imaging with hard X-rays at a spatial resolution of 30 nm or better. A dedicated source, beamline, and optics form the basis for these capabilities. This unique instrument is not only key to the specific research areas of the CNM; it will also be a general utility, available to the broader nanoscience community in studying nanomaterials and nanostructures, particularly for embedded structures.The combination of diffraction, fluorescence, and transmission contrast in a single tool provides unique characterization capabilities for nanoscience. Current hard X-ray microprobes based on Fresnel zone plate optics have demonstrated a spatial resolution of 150 nm at a photon energy of 8-10 keV. With advances in the fabrication of zone plate optics, coupled with an optimized beamline design, the performance goal is a spatial resolution of 30 nm. The nanoprobe covers the spectral range of 3-30 keV, and the working distance between the focusing optics and the sample are typically in the range of 10–20 mm. File:Nanoprobe.jpg".
%2C%20Argonne%20National%20Lab%20advanced%20the%20state%20of%20the%20art%20by%20providing%20a%20hard%20X-ray%20microscopy%20beamline%20with%20the%20highest%20spatial%20resolution%20in%20the%20world.%20It%20provides%20for%20fluorescence%2C%20diffraction%2C%20and%20transmission%20imaging%20with%20hard%20X-rays%20at%20a%20spatial%20resolution%20of%2030%20nm%20or%20better.%20A%20dedicated%20source%2C%20beamline%2C%20and%20optics%20form%20the%20basis%20for%20these%20capabilities.%20This%20unique%20instrument%20is%20not%20only%20key%20to%20the%20specific%20research%20areas%20of%20the%20CNM%3B%20it%20will%20also%20be%20a%20general%20utility%2C%20available%20to%20the%20broader%20nanoscience%20community%20in%20studying%20nanomaterials%20and%20nanostructures%2C%20particularly%20for%20embedded%20structures.The%20combination%20of%20diffraction%2C%20fluorescence%2C%20and%20transmission%20contrast%20in%20a%20single%20tool%20provides%20unique%20characterization%20capabilities%20for%20nanoscience.%20Current%20hard%20X-ray%20microprobes%20based%20on%20Fresnel%20zone%20plate%20optics%20have%20demonstrated%20a%20spatial%20resolution%20of%20150%20nm%20at%20a%20photon%20energy%20of%208-10%20keV.%20With%20advances%20in%20the%20fabrication%20of%20zone%20plate%20optics%2C%20coupled%20with%20an%20optimized%20beamline%20design%2C%20the%20performance%20goal%20is%20a%20spatial%20resolution%20of%2030%20nm.%20The%20nanoprobe%20covers%20the%20spectral%20range%20of%203-30%20keV%2C%20and%20the%20working%20distance%20between%20the%20focusing%20optics%20and%20the%20sample%20are%20typically%20in%20the%20range%20of%2010%E2%80%9320%20mm.%20File%3ANanoprobe.jpg%22%40en){kind=link}