Quantitative analysis of the field of view for X-ray differential phase contrast imaging
Du Yang, Xin Liu, Lei Yaohu, Huang Jianheng, Zhao Zhi-Gang, Lin Dan-Ying, Jinchuan Guo, Ji Li, Hanben Niu
Abstract
Du Yang, Xin Liu, Lei Yaohu, Huang Jianheng, Zhao Zhi-Gang, Lin Dan-Ying, Jinchuan Guo, Ji Li, Hanben Niu
Abstract
Grating-based X-ray differential phase contrast imaging provides excellent image contrast for low-Z objects that cannot be acquired by conventional X-ray imaging, which has great potential applications in the early diagnosis of cancer and non-destructive detections of low-Z materials and devices. Large field of view imaging is a crucial factor for this technology from the laboratory to practical application. For the objective need of large field of view, on the basis of the Fresnel diffraction theory and the structure characteristics of gratings, we establish a quantitative physical model to analyze the factors that affect the imaging field of view and give a feasible way for large imaging field of view. This work provides a theoretical basis for the large field of view grating-based X-ray differential phase contrast imaging in the future.
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Grating-based X-ray differential phase contrast imaging provides excellent image contrast for low-Z objects that cannot be acquired by conventional X-ray imaging, which has great potential applications in the early diagnosis of cancer and non-destructive detections of low-Z materials and devices. Large field of view imaging is a crucial factor for this technology from the laboratory to practical application. For the objective need of large field of view, on the basis of the Fresnel diffraction theory and the structure characteristics of gratings, we establish a quantitative physical model to analyze the factors that affect the imaging field of view and give a feasible way for large imaging field of view. This work provides a theoretical basis for the large field of view grating-based X-ray differential phase contrast imaging in the future.
Key concepts: Contrast (vision), X-Ray Phase-Contrast Imaging, Fresnel diffraction, Basis (linear algebra), Computer science, Grating, Phase-contrast imaging, Differential (mechanical device)