The ability of biomedical imaging data to be of quantitative nature is getting increasingly
important with the ongoing developments in data science. In contrast to conventional …

Abstract Talbot (-Lau) interferometric x-ray and neutron dark-field imaging has, over the past
decade, gained substantial interest for its ability to provide insights into a sample's …

X-ray phase contrast imaging is a powerful analysis technique for materials science and
biomedicine. Here, we report on laboratory grating-based X-ray interferometry employing a …

X-ray computed tomography (CT) is an invaluable imaging technique for non-invasive
medical diagnosis. However, for soft tissue in the human body the difference in attenuation …

X-ray grating-based phase-contrast imaging has raised interest regarding a variety of
potential clinical applications, whereas the method is feasible using a medical x-ray tube …

Grating-based X-ray phase-contrast and in particular dark-field radiography are promising
new imaging modalities for medical applications. Currently, the potential advantage of dark …

In conventional grating-based X-ray interferometry, it is necessary to repeatedly translate
one of the gratings with high accuracy in regular submicron steps and to ensure a constant …

Talbot-Lau X-ray phase contrast imaging is a promising technique in biological imaging
since it can provide absorption, differential phase contrast, and dark-field images …

Talbot–Lau x-ray interferometry is a grating-based phase-contrast technique, which enables
measurement of refractive index changes in matter with micrometric spatial resolution. The …

Grating-based X-ray phase-contrast (gbPC) is an X-ray phase-contrast imaging method
involving optical gratings that typically employs the Talbot self-imaging effect. X-ray phase …