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Phase retrieval for refraction-enhanced x-ray radiography using a deep neural network

X-ray refraction-enhanced radiography (RER) or phase contrast imaging is widely used to study internal discontinuities within materials. The resulting radiograph captures both the decrease in intensity caused by material absorption along the x-ray path, as well as the phase shift, which is highly se...

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Published in:Physics of plasmas 2024-09, Vol.31 (9)
Main Authors: Jiang, S., Landen, O. L., Whitley, H. D., Hamel, S., London, R. A., Sterne, P., Hansen, S. B., Hu, S. X., Collins, G. W., Ping, Y.
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container_issue 9
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container_title Physics of plasmas
container_volume 31
creator Jiang, S.
Landen, O. L.
Whitley, H. D.
Hamel, S.
London, R. A.
Sterne, P.
Hansen, S. B.
Hu, S. X.
Collins, G. W.
Ping, Y.
description X-ray refraction-enhanced radiography (RER) or phase contrast imaging is widely used to study internal discontinuities within materials. The resulting radiograph captures both the decrease in intensity caused by material absorption along the x-ray path, as well as the phase shift, which is highly sensitive to gradients in density. A significant challenge lies in effectively analyzing the radiographs to decouple the intensity and phase information and accurately ascertain the density profile. Conventional algorithms often yield ambiguous and unrealistic results due to difficulties in including physical constraints and other relevant information. We have developed an algorithm that uses a deep neural network to address these issues and applied it to extract the detailed density profile from an experimental RER. To generalize the applicability of our algorithm, we have developed a technique that quantitatively evaluates the complexity of the phase retrieval process based on the characteristics of the sample and the configuration of the experiment. Accordingly, this evaluation aids in the selection of the neural network architecture for each specific case. Beyond RER, the model has potential applications for other diagnostics where phase retrieval analysis is required.
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source American Institute of Physics:Jisc Collections:Transitional Journals Agreement 2021-23 (Reading list); AIP - American Institute of Physics
subjects Algorithms
Artificial neural networks
Deep learning
Density
Depth profiling
Fresnel diffraction
Fusion energy
Information retrieval
Integral transforms
Material absorption
Neural networks
Phase contrast
Phase contrast microscopy
Phase retrieval
Physics - Plasma physics
Plasma confinement
Radiographs
Radiography
X ray imagery
X ray refraction
X-ray camera
X-ray radiography
title Phase retrieval for refraction-enhanced x-ray radiography using a deep neural network
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