Edge illumination (EI) X-ray phase-contrast imaging has great potential for applications in a wide range of research, industrial and clinical fields. The optimization of the EI experimental setup for a given application is therefore essential, in order to take full advantage of the capabilities of the technique. In this work, we analyze the dependence of the angular sensitivity, spatial resolution and dose delivered to the sample upon the various experimental parameters, and describe possible strategies to optimize them. The obtained results will be important for the design of future EI experimental setups, in particular enabling their tailoring to specific applications
Novel laboratory implementations of the Edge Illumination X-Ray Phase Contrast imaging (EI-XPCi) met...
Edge illumination (EI) is a non-interferometric X-ray phase contrast imaging (XPCI) method that has ...
This article discusses two experimental setups of edge illumination (EI) x-ray phase contrast imagin...
Edge illumination is an X-ray phase-contrast imaging technique that can be efficiently applied to bo...
Abstract X-Ray Phase Contrast Imaging (XPCI) has been arguably the hottest topic in X-ray imaging r...
Edge illumination is an X-ray phase-contrast imaging technique capable of quantitative retrieval of ...
Edge illumination (EI) is an X-ray phase contrast imaging technique which has demonstrated its poten...
Edge illumination (EI) X-ray phase-contrast imaging (XPCI) has potential for applications in differe...
Previous studies on edge illumination (EI) X-ray phase-contrast imaging (XPCi) have investigated the...
International audienceThe application of the X-ray phase-contrast 'edge illumination' principle to t...
Purpose: In this work, an analytical model describing the noise in the retrieved three contrast chan...
X-ray phase contrast imaging (XPCi) methods are sensitive to phase in addition to attenuation effect...
Although early demonstration dates back to the mid-sixties, x-ray phase-contrast imaging (XPCI) beca...
This work presents the first study of x-ray phase contrast imaging based on a simple implementation ...
Purpose: Edge illumination (EI) X-ray phase-contrast imaging (XPCI) has been under development at U...
Novel laboratory implementations of the Edge Illumination X-Ray Phase Contrast imaging (EI-XPCi) met...
Edge illumination (EI) is a non-interferometric X-ray phase contrast imaging (XPCI) method that has ...
This article discusses two experimental setups of edge illumination (EI) x-ray phase contrast imagin...
Edge illumination is an X-ray phase-contrast imaging technique that can be efficiently applied to bo...
Abstract X-Ray Phase Contrast Imaging (XPCI) has been arguably the hottest topic in X-ray imaging r...
Edge illumination is an X-ray phase-contrast imaging technique capable of quantitative retrieval of ...
Edge illumination (EI) is an X-ray phase contrast imaging technique which has demonstrated its poten...
Edge illumination (EI) X-ray phase-contrast imaging (XPCI) has potential for applications in differe...
Previous studies on edge illumination (EI) X-ray phase-contrast imaging (XPCi) have investigated the...
International audienceThe application of the X-ray phase-contrast 'edge illumination' principle to t...
Purpose: In this work, an analytical model describing the noise in the retrieved three contrast chan...
X-ray phase contrast imaging (XPCi) methods are sensitive to phase in addition to attenuation effect...
Although early demonstration dates back to the mid-sixties, x-ray phase-contrast imaging (XPCI) beca...
This work presents the first study of x-ray phase contrast imaging based on a simple implementation ...
Purpose: Edge illumination (EI) X-ray phase-contrast imaging (XPCI) has been under development at U...
Novel laboratory implementations of the Edge Illumination X-Ray Phase Contrast imaging (EI-XPCi) met...
Edge illumination (EI) is a non-interferometric X-ray phase contrast imaging (XPCI) method that has ...
This article discusses two experimental setups of edge illumination (EI) x-ray phase contrast imagin...