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Design guidelines for an electron diffractometer for structural chemistry and structural biology

3D electron diffraction has reached a stage where the structures of chemical compounds can be solved productively. Instrumentation is lagging behind this development, and to date dedicated electron diffractometers for data collection based on the rotation method do not exist. Current studies use tra...

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Autores principales: Heidler, Jonas, Pantelic, Radosav, Wennmacher, Julian T. C., Zaubitzer, Christian, Fecteau-Lefebvre, Ariane, Goldie, Kenneth N., Müller, Elisabeth, Holstein, Julian J., van Genderen, Eric, De Carlo, Sacha, Gruene, Tim
Formato: Online Artículo Texto
Lenguaje:English
Publicado: International Union of Crystallography 2019
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6503764/
https://www.ncbi.nlm.nih.gov/pubmed/31063148
http://dx.doi.org/10.1107/S2059798319003942
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author Heidler, Jonas
Pantelic, Radosav
Wennmacher, Julian T. C.
Zaubitzer, Christian
Fecteau-Lefebvre, Ariane
Goldie, Kenneth N.
Müller, Elisabeth
Holstein, Julian J.
van Genderen, Eric
De Carlo, Sacha
Gruene, Tim
author_facet Heidler, Jonas
Pantelic, Radosav
Wennmacher, Julian T. C.
Zaubitzer, Christian
Fecteau-Lefebvre, Ariane
Goldie, Kenneth N.
Müller, Elisabeth
Holstein, Julian J.
van Genderen, Eric
De Carlo, Sacha
Gruene, Tim
author_sort Heidler, Jonas
collection PubMed
description 3D electron diffraction has reached a stage where the structures of chemical compounds can be solved productively. Instrumentation is lagging behind this development, and to date dedicated electron diffractometers for data collection based on the rotation method do not exist. Current studies use transmission electron microscopes as a workaround. These are optimized for imaging, which is not optimal for diffraction studies. The beam intensity is very high, it is difficult to create parallel beam illumination and the detectors used for imaging are of only limited use for diffraction studies. In this work, the combination of an EIGER hybrid pixel detector with a transmission electron microscope to construct a productive electron diffractometer is described. The construction not only refers to the combination of hardware but also to the calibration of the system, so that it provides rapid access to the experimental parameters that are necessary for processing diffraction data. Until fully integrated electron diffractometers become available, this describes a setup for productive and efficient operation in chemical crystallography.
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spelling pubmed-65037642019-05-16 Design guidelines for an electron diffractometer for structural chemistry and structural biology Heidler, Jonas Pantelic, Radosav Wennmacher, Julian T. C. Zaubitzer, Christian Fecteau-Lefebvre, Ariane Goldie, Kenneth N. Müller, Elisabeth Holstein, Julian J. van Genderen, Eric De Carlo, Sacha Gruene, Tim Acta Crystallogr D Struct Biol Ccp-EM 3D electron diffraction has reached a stage where the structures of chemical compounds can be solved productively. Instrumentation is lagging behind this development, and to date dedicated electron diffractometers for data collection based on the rotation method do not exist. Current studies use transmission electron microscopes as a workaround. These are optimized for imaging, which is not optimal for diffraction studies. The beam intensity is very high, it is difficult to create parallel beam illumination and the detectors used for imaging are of only limited use for diffraction studies. In this work, the combination of an EIGER hybrid pixel detector with a transmission electron microscope to construct a productive electron diffractometer is described. The construction not only refers to the combination of hardware but also to the calibration of the system, so that it provides rapid access to the experimental parameters that are necessary for processing diffraction data. Until fully integrated electron diffractometers become available, this describes a setup for productive and efficient operation in chemical crystallography. International Union of Crystallography 2019-04-08 /pmc/articles/PMC6503764/ /pubmed/31063148 http://dx.doi.org/10.1107/S2059798319003942 Text en © Heidler et al. 2019 http://creativecommons.org/licenses/by/4.0/ This is an open-access article distributed under the terms of the Creative Commons Attribution (CC-BY) Licence, which permits unrestricted use, distribution, and reproduction in any medium, provided the original authors and source are cited.http://creativecommons.org/licenses/by/4.0/
spellingShingle Ccp-EM
Heidler, Jonas
Pantelic, Radosav
Wennmacher, Julian T. C.
Zaubitzer, Christian
Fecteau-Lefebvre, Ariane
Goldie, Kenneth N.
Müller, Elisabeth
Holstein, Julian J.
van Genderen, Eric
De Carlo, Sacha
Gruene, Tim
Design guidelines for an electron diffractometer for structural chemistry and structural biology
title Design guidelines for an electron diffractometer for structural chemistry and structural biology
title_full Design guidelines for an electron diffractometer for structural chemistry and structural biology
title_fullStr Design guidelines for an electron diffractometer for structural chemistry and structural biology
title_full_unstemmed Design guidelines for an electron diffractometer for structural chemistry and structural biology
title_short Design guidelines for an electron diffractometer for structural chemistry and structural biology
title_sort design guidelines for an electron diffractometer for structural chemistry and structural biology
topic Ccp-EM
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6503764/
https://www.ncbi.nlm.nih.gov/pubmed/31063148
http://dx.doi.org/10.1107/S2059798319003942
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