A new free electron laser facility will probe aerosols in smog.
Not exact matches
This opens up
new opportunities in the study of protein structures, as the team headed by DESY's Leading Scientist Henry Chapman from the Center for
Free -
Electron Laser Science reports in the Proceedings of the U.S. National Academy of Sciences (PNAS).
Fuchs and other team members used a
new source of X-rays, an X-ray
free -
electron laser at the National Accelerator Laboratory in California, to conduct experiments.
Free -
electron lasers are extremely versatile research tools because their intense, super short light flashes permit a closer look at
new materials and even biological molecules; thus, allowing effects to be observed that had not been known previously.
Examples include handling data from faster detectors, like the Pilatus, handling
new technologies, such as the X-ray
free electron laser (XFEL), and handling
new types of experiments, such as putting multiple crystals in the beamline at the same time, or running experiments using two different wavelengths at the same time.
The current focus of his work is finding ways to apply
new methods to multiple modes of data collection, from X-ray diffraction to cryo -
electron microscopy, X-ray
free electron laser (XFEL) technology, and
electron diffraction.
His discovery of techniques that have enabled unprecedented beam brightness has led to a
new generation of intense
free electron lasers, including the Laboratory's Navy Free Electron Laser, and MaRIE, a premier X-ray FEL facility that is currently in des
free electron lasers, including the Laboratory's Navy Free Electron Laser, and MaRIE, a premier X-ray FEL facility that is currently in
electron lasers, including the Laboratory's Navy
Free Electron Laser, and MaRIE, a premier X-ray FEL facility that is currently in des
Free Electron Laser, and MaRIE, a premier X-ray FEL facility that is currently in
Electron Laser, and MaRIE, a premier X-ray FEL facility that is currently in design.
On the docket is support for a
new types of detectors assembled from may separate, planar segments for recording FEL (
free electron laser) data at the Linac Coherent Light Source at Stanford.
Free -
electron lasers have opened
new frontiers in studying materials and chemistry at the nanoscale and beyond, and Filippetto said he hopes to pave
new ground with HiRES, too, using a technique known as «ultrafast
electron diffraction,» or UED, that is similar to X-ray diffraction.
And
new X-ray
free -
electron lasers, such as the Linac Coherent Light Source at the SLAC National Accelerator Laboratory can produce beams a billion times brighter than traditional synchrotron sources with femtosecond - timescale pulses — promising unprecedented exploration of chemical dynamics.
These opportunities include using ultrafast X-ray sources to extract time - dependent structural information from proteins; and revolutionary possibilities created by X-ray
Free Electron Laser radiation for an entirely
new regime of pre-damage serial femtosecond crystallography.
Abstract: We have investigated multiphoton multiple ionization dynamics of argon and xenon atoms using a
new x-ray
free electron laser (XFEL) facility, SPring - 8 Angstrom Compact free electron LAser (SACLA) in Japan, and identified that highly charged Xe ions with the charge state up to +26 are produced predominantly via four - photon absorption as well as highly charged Ar ions with the charge state up to +10... ▽ More We have investigated multiphoton multiple ionization dynamics of argon and xenon atoms using a new x-ray free electron laser (XFEL) facility, SPring - 8 Angstrom Compact free electron LAser (SACLA) in Japan, and identified that highly charged Xe ions with the charge state up to +26 are produced predominantly via four - photon absorption as well as highly charged Ar ions with the charge state up to +10 are produced via two - photon absorption at a photon energy of 5.5
laser (XFEL) facility, SPring - 8 Angstrom Compact
free electron LAser (SACLA) in Japan, and identified that highly charged Xe ions with the charge state up to +26 are produced predominantly via four - photon absorption as well as highly charged Ar ions with the charge state up to +10... ▽ More We have investigated multiphoton multiple ionization dynamics of argon and xenon atoms using a new x-ray free electron laser (XFEL) facility, SPring - 8 Angstrom Compact free electron LAser (SACLA) in Japan, and identified that highly charged Xe ions with the charge state up to +26 are produced predominantly via four - photon absorption as well as highly charged Ar ions with the charge state up to +10 are produced via two - photon absorption at a photon energy of 5.5
LAser (SACLA) in Japan, and identified that highly charged Xe ions with the charge state up to +26 are produced predominantly via four - photon absorption as well as highly charged Ar ions with the charge state up to +10... ▽ More We have investigated multiphoton multiple ionization dynamics of argon and xenon atoms using a
new x-ray
free electron laser (XFEL) facility, SPring - 8 Angstrom Compact free electron LAser (SACLA) in Japan, and identified that highly charged Xe ions with the charge state up to +26 are produced predominantly via four - photon absorption as well as highly charged Ar ions with the charge state up to +10 are produced via two - photon absorption at a photon energy of 5.5
laser (XFEL) facility, SPring - 8 Angstrom Compact
free electron LAser (SACLA) in Japan, and identified that highly charged Xe ions with the charge state up to +26 are produced predominantly via four - photon absorption as well as highly charged Ar ions with the charge state up to +10 are produced via two - photon absorption at a photon energy of 5.5
LAser (SACLA) in Japan, and identified that highly charged Xe ions with the charge state up to +26 are produced predominantly via four - photon absorption as well as highly charged Ar ions with the charge state up to +10 are produced via two - photon absorption at a photon energy of 5.5 keV.
These opportunities include the use of short - pulsed X-ray sources for extracting time - dependent structural information from proteins; and the revolutionary
new possibilities created by X-ray
Free Electron Lasers, which combine ultrafast X-ray pulses with high brilliance focussing capabilities to create an entirely
new regime of pre-damage time - resolved serial femtosecond crystallography on unprecedented time - scales.