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Dichography: two-frame ultrafast imaging from a single diffraction pattern

delete2026-06-24
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L
Linos Hecht
B
Björn Bastian
T
Thomas M. Baumann
J
Johan Bielecki
C
Christoph Bostedt
S
Subhendu De
S
Simon Dold
T
Thomas Fennel
F
Fanny Goy
C
Christina Gräf
R
Robert Hartmann
G
Georg Jakobs
M
Maximilian Joschko
G
Gregor Knopp
K
Katharina Kolatzki
S
Sivarama Krishnan
B
Björn Kruse
A
Asbjørn Ø. Lægdsmand
B
Bruno Langbehn
S
Suddhasattwa Mandal
T
Tommaso Mazza
M
Michael Meyer
C
Christian Peltz
T
Thomas Pfeifer
S
Safi Rafie-Zinedine
M
Mario Sauppe
F
Florian Schenk
K
Kirsten Schnorr
B
Björn Senfftleben
K
Keshav Sishodia
F
F. Stienkemeier
Z
Zhibin Sun
R
Rico Mayro P. Tanyag
P
Paul Tuemmler
S
Sergey Usenko
C
Carl Frederic Ussling
V
Vanessa Wood
X
Xinhua Xie
M
Maksym Yarema
O
Olesya Yarema
N
Nuri Yazdani
H
Hankai Zhang
B
Bernd von Issendorff
Y
Yevheniy Ovcharenko
M
M. Mudrich
D
Daniela Rupp
A
Alessandro Colombo
DOI:10.1038/s41467-026-74442-wdelete
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Abstract

Abstract

En 中文
We experimentally demonstrate that pairs of time-delayed ultrabright and ultrashort X-ray pulses of two different colors, delivered by modern X-ray Free Electron Lasers, can provide two time-delayed snapshots of a sample. We introduce Dichography, a method that algorithmically separates the diffraction signals overlapping on the detector and independently retrieves the two images of the specimen. We employ Dichography to reconstruct two views of individual xenon-doped helium nanodroplets with 20 nm spatial resolution. The consistency of structures observed in both images at delays up to 750 fs provides evidence that, under these illumination conditions, significant structural damage only occurs at longer timescales. We further validate the method by imaging pairs of silver nanoparticles intercepted by the same light pulse. Dichography enables a new class of experiments across physics, chemistry, and materials science, making a significant step toward the original promise of X-ray free-electron lasers to capture ultrafast movies of nanomatter. Dichography enables two-frame movies of isolated nanostructures at femtosecond frame rates. This method unlocks opportunities for recording, tracking, and ultimately controlling elusive ultrafast processes at the nanoscale.
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Nature Communications cover
Nature Communications
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15.7
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9.2W
Citations:
91.2W

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