_version_ 1866912553793224704
author Colombo, Alessandro
Sauppe, Mario
Haddad, Andre Al
Ayyer, Kartik
Babayan, Morsal
Boll, Rebecca
Dagar, Ritika
Dold, Simon
Fennel, Thomas
Hecht, Linos
Knopp, Gregor
Kolatzki, Katharina
Langbehn, Bruno
Maia, Filipe R. N. C.
Mall, Abhishek
Mazumder, Parichita
Mazza, Tommaso
Ovcharenko, Yevheniy
Polat, Ihsan Caner
Raiser, Dirk
Schäfer-Zimmermann, Julian C.
Schnorr, Kirsten
Schubert, Marie Louise
Sehati, Arezu
Sellberg, Jonas A.
Senfftleben, Björn
Shen, Zhou
Sun, Zhibin
Svensson, Pamela H. W.
Tümmler, Paul
Usenko, Sergey
Ussling, Carl Frederic
Veteläinen, Onni
Wächter, Simon
Walsh, Noelle
Weitnauer, Alex V.
You, Tong
Zuod, Maha
Meyer, Michael
Bostedt, Christoph
Galli, Davide E.
Patanen, Minna
Rupp, Daniela
author_facet Colombo, Alessandro
Sauppe, Mario
Haddad, Andre Al
Ayyer, Kartik
Babayan, Morsal
Boll, Rebecca
Dagar, Ritika
Dold, Simon
Fennel, Thomas
Hecht, Linos
Knopp, Gregor
Kolatzki, Katharina
Langbehn, Bruno
Maia, Filipe R. N. C.
Mall, Abhishek
Mazumder, Parichita
Mazza, Tommaso
Ovcharenko, Yevheniy
Polat, Ihsan Caner
Raiser, Dirk
Schäfer-Zimmermann, Julian C.
Schnorr, Kirsten
Schubert, Marie Louise
Sehati, Arezu
Sellberg, Jonas A.
Senfftleben, Björn
Shen, Zhou
Sun, Zhibin
Svensson, Pamela H. W.
Tümmler, Paul
Usenko, Sergey
Ussling, Carl Frederic
Veteläinen, Onni
Wächter, Simon
Walsh, Noelle
Weitnauer, Alex V.
You, Tong
Zuod, Maha
Meyer, Michael
Bostedt, Christoph
Galli, Davide E.
Patanen, Minna
Rupp, Daniela
contents Coherent Diffraction Imaging (CDI) is an experimental technique to gain images of isolated structures by recording the light scattered off the sample. In principle, the sample density can be recovered from the scattered light field through a straightforward Fourier Transform operation. However, only the amplitude of the field is recorded, while the phase is lost during the measurement process and has to be retrieved by means of suitable, well-established phase retrieval algorithms. In this work, we present SPRING, an analysis framework tailored to X-ray Free Electron Laser (XFEL) single-shot single-particle diffraction data that implements the Memetic Phase Retrieval method to mitigate the shortcomings of conventional algorithms. We benchmark the approach on experimental data acquired in two experimental campaigns at SwissFEL and European XFEL. Imaging results on isolated nanostructures reveal unprecedented stability and resilience of the algorithm's behavior on the input parameters, as well as the capability of identifying the solution in conditions hardly treatable so far with conventional methods. A user-friendly implementation of SPRING is released as open-source software, aiming at being a reference tool for the coherent diffraction imaging community at XFEL and synchrotron facilities.
format Preprint
id arxiv_https___arxiv_org_abs_2409_07413
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle SPRING: an effective and reliable framework for image reconstruction in single-particle Coherent Diffraction Imaging
Colombo, Alessandro
Sauppe, Mario
Haddad, Andre Al
Ayyer, Kartik
Babayan, Morsal
Boll, Rebecca
Dagar, Ritika
Dold, Simon
Fennel, Thomas
Hecht, Linos
Knopp, Gregor
Kolatzki, Katharina
Langbehn, Bruno
Maia, Filipe R. N. C.
Mall, Abhishek
Mazumder, Parichita
Mazza, Tommaso
Ovcharenko, Yevheniy
Polat, Ihsan Caner
Raiser, Dirk
Schäfer-Zimmermann, Julian C.
Schnorr, Kirsten
Schubert, Marie Louise
Sehati, Arezu
Sellberg, Jonas A.
Senfftleben, Björn
Shen, Zhou
Sun, Zhibin
Svensson, Pamela H. W.
Tümmler, Paul
Usenko, Sergey
Ussling, Carl Frederic
Veteläinen, Onni
Wächter, Simon
Walsh, Noelle
Weitnauer, Alex V.
You, Tong
Zuod, Maha
Meyer, Michael
Bostedt, Christoph
Galli, Davide E.
Patanen, Minna
Rupp, Daniela
Optics
Mesoscale and Nanoscale Physics
Atomic and Molecular Clusters
Computational Physics
Data Analysis, Statistics and Probability
Coherent Diffraction Imaging (CDI) is an experimental technique to gain images of isolated structures by recording the light scattered off the sample. In principle, the sample density can be recovered from the scattered light field through a straightforward Fourier Transform operation. However, only the amplitude of the field is recorded, while the phase is lost during the measurement process and has to be retrieved by means of suitable, well-established phase retrieval algorithms. In this work, we present SPRING, an analysis framework tailored to X-ray Free Electron Laser (XFEL) single-shot single-particle diffraction data that implements the Memetic Phase Retrieval method to mitigate the shortcomings of conventional algorithms. We benchmark the approach on experimental data acquired in two experimental campaigns at SwissFEL and European XFEL. Imaging results on isolated nanostructures reveal unprecedented stability and resilience of the algorithm's behavior on the input parameters, as well as the capability of identifying the solution in conditions hardly treatable so far with conventional methods. A user-friendly implementation of SPRING is released as open-source software, aiming at being a reference tool for the coherent diffraction imaging community at XFEL and synchrotron facilities.
title SPRING: an effective and reliable framework for image reconstruction in single-particle Coherent Diffraction Imaging
topic Optics
Mesoscale and Nanoscale Physics
Atomic and Molecular Clusters
Computational Physics
Data Analysis, Statistics and Probability
url https://arxiv.org/abs/2409.07413