Knowledge of the sequence of different conformational states of a protein molecule is key to better understanding its biological function. A diffraction pattern from a single conformational state can be captured with an ultrafast X-ray Free-Electron Laser (XFEL) before the target is completely annihilated by the radiation. In this paper, we report the first experimental demonstration of conformation sequence recovery using diffraction patterns from randomly ordered conformations of a non-periodic object using the dimensional reduction technique Isomap and coherent diffraction imaging
Atomic‐resolution‐imaging approaches for single molecules, such as coherent X‐ray diffraction at fre...
Atomic‐resolution‐imaging approaches for single molecules, such as coherent X‐ray diffraction at fre...
Single-particle diffraction imaging experiments at free-electron lasers (FELs) have a greatpotential...
Knowledge of the sequence of different conformational states of a protein molecule is key to better ...
X-ray free-electron lasers produce pulses of coherent X-rays that are up to nine orders of magnitude...
X-ray free-electron lasers produce pulses of coherent X-rays that are up to nine orders of magnitude...
Several distinct computational approaches have recently been implemented to represent conformational...
Capturing structural information of a biological molecule is crucial to determine its function and u...
Free-electron lasers now have the ability to collect X-ray diffraction patterns from individual mole...
Free-electron lasers now have the ability to collect X-ray diffraction patterns from individual mole...
Free-electron lasers now have the ability to collect X-ray diffraction patterns from individual mole...
X-ray crystallography has been around for 100 years and remains the preferred technique for solving ...
X-ray free-electron lasers provide femtosecond-duration pulses of hard X-rays with a peak brightness...
Understanding of biological function requires knowledge both on structural and dynamical aspects. Th...
International audienceWe present a new hybrid approach for structural modeling using X-ray free elec...
Atomic‐resolution‐imaging approaches for single molecules, such as coherent X‐ray diffraction at fre...
Atomic‐resolution‐imaging approaches for single molecules, such as coherent X‐ray diffraction at fre...
Single-particle diffraction imaging experiments at free-electron lasers (FELs) have a greatpotential...
Knowledge of the sequence of different conformational states of a protein molecule is key to better ...
X-ray free-electron lasers produce pulses of coherent X-rays that are up to nine orders of magnitude...
X-ray free-electron lasers produce pulses of coherent X-rays that are up to nine orders of magnitude...
Several distinct computational approaches have recently been implemented to represent conformational...
Capturing structural information of a biological molecule is crucial to determine its function and u...
Free-electron lasers now have the ability to collect X-ray diffraction patterns from individual mole...
Free-electron lasers now have the ability to collect X-ray diffraction patterns from individual mole...
Free-electron lasers now have the ability to collect X-ray diffraction patterns from individual mole...
X-ray crystallography has been around for 100 years and remains the preferred technique for solving ...
X-ray free-electron lasers provide femtosecond-duration pulses of hard X-rays with a peak brightness...
Understanding of biological function requires knowledge both on structural and dynamical aspects. Th...
International audienceWe present a new hybrid approach for structural modeling using X-ray free elec...
Atomic‐resolution‐imaging approaches for single molecules, such as coherent X‐ray diffraction at fre...
Atomic‐resolution‐imaging approaches for single molecules, such as coherent X‐ray diffraction at fre...
Single-particle diffraction imaging experiments at free-electron lasers (FELs) have a greatpotential...