Ultrashort pulses from x-ray free-electron laser (XFEL) sources promise to assist in obtaining the structures of membrane proteins at high resolution. We have reconstructed the electron density distribution of a two-dimensional (2D) aquaporin crystal from simulated XFEL data using ptychography, a diffractive imaging technique based on multiple exposures. Increasing the number of exposures compensates for Poisson noise, indicating that the achievable resolution is limited by the reproducibility of the crystals. This technique should therefore be applicable at all future ultrashort-pulsed hard x-ray sources
One of the exciting prospects enabled by the short, intense pulses of X-ray free-electron lasers (XF...
We employ start–to-end simulations to model coherent diffractive imaging of single biomolecules usin...
Electron crystallography of two-dimensional (2D) crystals determines the structure of membrane prote...
Previous proof-of-concept measurements on single-layer two-dimensional membrane-protein crystals per...
Membrane proteins arranged as two-dimensional crystals in the lipid environment provide close-to-phy...
Membrane protein structural biology has benefitted tremendously from access to micro-focus crystallo...
Serial femtosecond crystallography of two-dimensional membrane-protein crystals at X-ray free-electr...
There is considerable potential for X-ray free electron lasers (XFELs) to enable determination of ma...
A new era of protein crystallography started when X-ray free-electron lasers (XFELs) came into opera...
The determination of protein crystal structures is hampered by the need for macroscopic crystals. X-...
For the foreseeable future, progress in determining high-resolution structures of membrane proteins ...
X-ray free-electron lasers produce pulses of coherent X-rays that are up to nine orders of magnitude...
abstract: X-ray diffraction patterns from two-dimensional (2-D) protein crystals obtained using femt...
X−ray free electron laser (X−FEL)−based serial femtosecond crystallography is an emerging method wit...
Membrane proteins constitute > 30% of the proteins in an average cell, and yet the number of current...
One of the exciting prospects enabled by the short, intense pulses of X-ray free-electron lasers (XF...
We employ start–to-end simulations to model coherent diffractive imaging of single biomolecules usin...
Electron crystallography of two-dimensional (2D) crystals determines the structure of membrane prote...
Previous proof-of-concept measurements on single-layer two-dimensional membrane-protein crystals per...
Membrane proteins arranged as two-dimensional crystals in the lipid environment provide close-to-phy...
Membrane protein structural biology has benefitted tremendously from access to micro-focus crystallo...
Serial femtosecond crystallography of two-dimensional membrane-protein crystals at X-ray free-electr...
There is considerable potential for X-ray free electron lasers (XFELs) to enable determination of ma...
A new era of protein crystallography started when X-ray free-electron lasers (XFELs) came into opera...
The determination of protein crystal structures is hampered by the need for macroscopic crystals. X-...
For the foreseeable future, progress in determining high-resolution structures of membrane proteins ...
X-ray free-electron lasers produce pulses of coherent X-rays that are up to nine orders of magnitude...
abstract: X-ray diffraction patterns from two-dimensional (2-D) protein crystals obtained using femt...
X−ray free electron laser (X−FEL)−based serial femtosecond crystallography is an emerging method wit...
Membrane proteins constitute > 30% of the proteins in an average cell, and yet the number of current...
One of the exciting prospects enabled by the short, intense pulses of X-ray free-electron lasers (XF...
We employ start–to-end simulations to model coherent diffractive imaging of single biomolecules usin...
Electron crystallography of two-dimensional (2D) crystals determines the structure of membrane prote...