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CODATA recommended values of the fundamental physical constants: 1998Differential x-ray phase contrast imaging using a shearing interferometerIn Vitro Validation of an Artefact Suppression Algorithm in X-Ray Phase-Contrast Computed TomographyObservation of a motion-induced phase shift of neutron de Broglie waves passing through matter near a nuclear resonanceX-Ray Phase-Contrast Imaging with Nanoradian Angular ResolutionInterferometric Measurement of Neutron Fizeau EffectTrimodal low-dose X-ray tomographyA universal moiré effect and application in X-ray phase-contrast imagingMotionless phase stepping in X-ray phase contrast imaging with a compact sourceQuantitative X-ray phase-contrast microtomography from a compact laser-driven betatron source.Analysis and accurate reconstruction of incomplete data in X-ray differential phase-contrast computed tomography.X-ray scattering factors of metallic aluminum calculated from a self-consistent x-ray attenuation data base.Propagation-based Phase-Contrast X-ray Imaging at a Compact Light Source.Low-dose, simple, and fast grating-based X-ray phase-contrast imagingA laboratory system for element specific hyperspectral X-ray imaging.Subnanoradian X-ray phase-contrast imaging using a far-field interferometer of nanometric phase gratings.Boosting phase contrast with a grating Bonse-Hart interferometer of 200 nanometre grating period.Enhancing Tabletop X-Ray Phase Contrast Imaging with Nano-FabricationQuantitative comparison of direct phase retrieval algorithms in in-line phase tomography.An improved phase shift reconstruction algorithm of fringe scanning technique for X-ray microscopy.Quantitative and dynamic measurements of biological fresh samples with X-ray phase contrast tomography3D algebraic iterative reconstruction for cone-beam x-ray differential phase-contrast computed tomography.Absorption and Phase Contrast X-Ray Imaging in Paleontology Using Laboratory and Synchrotron Sources.Technical Note: Synchrotron-based high-energy x-ray phase sensitive microtomography for biomedical research.Ideal-observer detectability in photon-counting differential phase-contrast imaging using a linear-systems approach.X-ray absorption, phase and dark-field tomography through a beam tracking approach.Neovascularization of hepatocellular carcinoma in a nude mouse orthotopic liver cancer model: a morphological study using X-ray in-line phase-contrast imaging.Application of sensitive, high-resolution imaging at a commercial lab-based X-ray micro-CT system using propagation-based phase retrieval.Multimodal imaging of human cerebellum - merging X-ray phase microtomography, magnetic resonance microscopy and histologyFrom synchrotron radiation to lab source: advanced speckle-based X-ray imaging using abrasive paper.Interferometric hard x-ray phase contrast imaging at 204 nm grating period.Asymmetric masks for laboratory-based X-ray phase-contrast imaging with edge illuminationRobust phase retrieval for high resolution edge illumination x-ray phase-contrast computed tomography in non-ideal environmentsVisualization and Pathological Characteristics of Hepatic Alveolar Echinococcosis with Synchrotron-based X-ray Phase Sensitive Micro-tomography.On the evolution and relative merits of hard X-ray phase-contrast imaging methods.Large field of view, fast and low dose multimodal phase-contrast imaging at high x-ray energy.Combining Monte Carlo methods with coherent wave optics for the simulation of phase-sensitive X-ray imaging.High sensitivity phase retrieval method in grating-based x-ray phase contrast imaging.Monte Carlo model of a polychromatic laboratory based edge illumination x-ray phase contrast system.Method for automatization of the alignment of a laboratory based x-ray phase contrast edge illumination system.
P2860
Q21563890-30D5AA61-BF26-423C-A156-5B6B0892EE8FQ22248103-3C68CBCA-D1FC-4C09-BD80-8A749C096C41Q27300302-44ECD00E-5EC1-4B77-A588-F6B224FD0D79Q27339655-56F5149E-C19F-4B0B-AA84-ABD08E77BA1AQ27449470-F7D74A15-816E-40D4-B27B-0944D2C744CEQ27450305-1F660D2A-0F91-4F3D-95CD-5C1138C01898Q28727748-E732EB5F-444F-4C47-836A-45B066209B30Q29040112-1FBBAF20-9B9C-463E-8FE1-C655D74031F6Q30558239-8BE00DAF-7E95-4FD7-82F8-F36542676B8BQ30659341-C0387CEA-5FF8-4EC9-8AFA-59E2EDA8179BQ30704914-024FB076-46AC-4A58-9474-17F8A87373D9Q31927613-A75D1C43-4322-4BA7-9527-91F9D822574EQ33884955-A2DB7C14-CF22-4C3F-996F-7A8CBFB819B9Q34068500-4B62BB9E-42FE-4AF3-89E9-47847C57826DQ34311222-E7F029F6-E2ED-49D3-BD49-124EB3B9059BQ34382443-72F58A6B-9B74-4A43-8B20-FB03E799C4E3Q34400490-4E64D20F-9DAC-412E-947C-0FC4B6603D18Q34491364-12BE339D-4B33-4F30-82D8-3DBCBD82E96AQ34869981-BB724F4C-F2AF-4BB0-8FE5-972A01B9A1A3Q35569423-0098B303-0637-4C83-B813-F980BF0CB1B9Q35574992-A0A676BE-0FB7-482F-89D5-4362BE2F9F1AQ35578650-A2FD9B89-508B-4A78-8F4F-4FE5A5872648Q35755196-EC455719-EE24-4A93-BC0A-C1F7A5F5638DQ36053342-EABC5908-649F-4342-9064-39E8F7A2AB00Q36187984-7663303A-8C93-47D8-AB06-C48F2256E8B4Q36254662-01539263-BF8C-4D76-9B6A-85CF293910A8Q36260163-65153BBF-74D2-4D09-BCA3-387781C56B44Q36274996-B8DCF568-B3A4-453B-B97C-C3B83E81E8B1Q36386212-7EB047AE-F509-4D55-BC31-2C2F748F0DD7Q36548670-09A421A2-6AF7-4757-9A81-AC9B3ED31923Q36614588-D1D76CEF-A2E6-4648-A94B-F462DD9D7FB3Q36870853-8ACA7105-381A-4CE6-8D7E-35D86AC5B3BFQ37159810-DAEDE5B6-737E-472B-BF7C-DBFBE30005F8Q37449383-D056C528-8854-4CDA-87B5-E0D1BCB9E97CQ38182535-BF10C301-70C6-4925-AB4F-0F80CD0EEB71Q38681584-9C137AD6-7DC4-4812-ABFF-9A2A9D0DD109Q38952126-883E8BDC-7675-4C8D-A18D-F1A1DCE5E6C9Q39043050-D45FA987-6383-49DB-B987-1A9A2D4AA3F4Q39183510-509C83DE-A942-407B-A029-A9E0629E0E99Q39355295-4A8F21C1-2E31-44A3-9B06-A60B85523CD2
P2860
description
im April 1965 veröffentlichter wissenschaftlicher Artikel
@de
wetenschappelijk artikel
@nl
наукова стаття, опублікована у квітні 1965
@uk
name
AN X‐RAY INTERFEROMETER
@en
AN X‐RAY INTERFEROMETER
@nl
type
label
AN X‐RAY INTERFEROMETER
@en
AN X‐RAY INTERFEROMETER
@nl
prefLabel
AN X‐RAY INTERFEROMETER
@en
AN X‐RAY INTERFEROMETER
@nl
P356
P1476
AN X‐RAY INTERFEROMETER
@en
P2093
P304
P356
10.1063/1.1754212
P407
P577
1965-04-15T00:00:00Z