High-throughput sample handling and data collection at synchrotrons: embedding the ESRF into the high-throughput gene-to-structure pipeline

Beteva, A.; Cipriani, F.; Cusack, S.; Delageniere, S.; Gabadinho, J.; Gordon, E.J.; Guijarro, M.; Hall, D.R.; Larsen, S.; Launer, L.; Lavault, C.B.; Leonard, G.A.; Mairs, T.; McCarthy, A.; McCarthy, J.; Meyer, J.; Mitchell, E.; Monaco, S.; Nurizzo, D.; Pernot, P.; Pieritz, R.; Ravelli, R.G.B.; Rey, V.; Shepard, W.; Spruce, D.; Stuart, D.I.; Svensson, O.; Theveneau, P.; Thibault, X.; Turkenburg, J.; Walsh, M.; McSweeney, S.M.

doi:10.1107/S0907444906032859

Acta Crystallographica Section D
Acta Crystallographica
Section D BIOLOGICAL CRYSTALLOGRAPHY

IUCr IT WDC

home archive editors for authors for readers submit subscribe open access

view article

Figure 1
The typical MX experiment. Schematic representation of an experiment from beamline configuration through to final data deposition, with the core parts of the DCP highlighted in green, experimental safety control being the final control before data collection (highlighted in red). MX experiments normally follow a well established format which permits a systems approach to integrating and automating the steps. Data tracking will mean the integration of home-laboratory databases for pipelining information to and from the synchrotron.

BIOLOGICAL
CRYSTALLOGRAPHY

ISSN: 1399-0047

Volume 62| Part 10| September 2006| Pages 1162-1169

doi:10.1107/S0907444906032859

Follow Acta Cryst. D

Search IUCr Journals		doi		Advanced search
Author		volume	page