Biological X-ray diffraction measurements with a novel two-dimensional gaseous pixel detector

In order to exploit the potential of modern X‐ray diffraction studies to its full extent, a new generation of appropriate detectors is required. Here, a small prototype (28 × 28 mm2 active area) of a novel two‐dimensional pixel detector is presented which satisfies most of the requirements. It is ba...

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Veröffentlicht in:Journal of synchrotron radiation 1999-09, Vol.6 (5), p.985-994
Hauptverfasser: Sarvestani, Amir, Amenitsch, Heinz, Bernstorff, Sigrid, Besch, Hans-Jürgen, Menk, Ralf H., Orthen, Andre, Pavel, Nikolaj, Rappolt, Michael, Sauer, Norbert, Walenta, Albert H.
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container_end_page 994
container_issue 5
container_start_page 985
container_title Journal of synchrotron radiation
container_volume 6
creator Sarvestani, Amir
Amenitsch, Heinz
Bernstorff, Sigrid
Besch, Hans-Jürgen
Menk, Ralf H.
Orthen, Andre
Pavel, Nikolaj
Rappolt, Michael
Sauer, Norbert
Walenta, Albert H.
description In order to exploit the potential of modern X‐ray diffraction studies to its full extent, a new generation of appropriate detectors is required. Here, a small prototype (28 × 28 mm2 active area) of a novel two‐dimensional pixel detector is presented which satisfies most of the requirements. It is based on a gaseous single‐photon counter with asynchronous readout and interpolating position encoding, combining the advantages of a pure pixel readout (high local and global rate capability) with those of a projecting readout (small number of channels). In order to demonstrate the suitability of this detector for X‐ray diffraction applications, measurements at a synchrotron radiation source have been performed recording diffraction patterns from different biological samples (rat tail tendon collagen, phospholipid and protein crystal). These measurements have proven the good spatial resolution, the high intensity precision and the high local rate capability. Moreover, the single‐photon readout was utilized in order to perform time‐resolved measurements in the case of SAXS studies and to apply fine angular slicing in the case of protein crystallography. The detector has a high reliability and robustness, particularly when compared with conventional gaseous detectors, and the technology used can be easily extended to large active areas.
doi_str_mv 10.1107/S0909049599007657
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source Wiley Online Library Open Access
subjects gas-filled single-photon counters
protein crystallography
small-angle X-ray scattering
time-resolved X-ray imaging
two-dimensional pixel detectors
title Biological X-ray diffraction measurements with a novel two-dimensional gaseous pixel detector
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