Instrumentation for photocrystallographic experiments of transient species

Instrumentation for stroboscopic time‐resolved diffraction studies at low temperatures is described. Exciting laser light is delivered to the crystal through an optical fiber. During the diffraction experiment, fluorescence from the sample is focused onto a fiber optic bundle surrounding the laser‐l...

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Veröffentlicht in:Journal of synchrotron radiation 2000-07, Vol.7 (4), p.229-235
Hauptverfasser: Fullagar, Wilfred K., Wu, Guang, Kim, Chris, Ribaud, Lynn, Sagerman, Gary, Coppens, Philip
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container_end_page 235
container_issue 4
container_start_page 229
container_title Journal of synchrotron radiation
container_volume 7
creator Fullagar, Wilfred K.
Wu, Guang
Kim, Chris
Ribaud, Lynn
Sagerman, Gary
Coppens, Philip
description Instrumentation for stroboscopic time‐resolved diffraction studies at low temperatures is described. Exciting laser light is delivered to the crystal through an optical fiber. During the diffraction experiment, fluorescence from the sample is focused onto a fiber optic bundle surrounding the laser‐light fiber, and monitored by a photodiode. A rotating slotted disk produces a pulsed X‐ray beam with pulse frequencies suitable for the study of molecular excited states with lifetimes of 10 µs or longer. Synchronization of the laser‐pump/X‐ray‐probe pulses is achieved through a trigger signal from a photosensor mounted on the rotating disk, or from an X‐ray sensitive photodiode inserted in the beamstop. For the study of shorter‐lived species the time structure of the synchrotron beam is to be used. Equations are derived for the maximum and average fractional excited‐state populations as a function of lifetime, pulse frequency and the fraction of molecules being excited by the laser pulse.
doi_str_mv 10.1107/S0909049500005422
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subjects excited states
fluorescence measurements
fractional excited-state populations
time-resolved experiments
title Instrumentation for photocrystallographic experiments of transient species
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