Literature DB >> 20012211

Slow cooling and temperature-controlled protein crystallography.

Matthew Warkentin1, Robert E Thorne.   

Abstract

In cryocrystallography, rapid sample cooling is generally deemed essential to prevent solvent crystallization and associated sample damage. We show that by carefully and completely removing all external solvent, many protein crystals can be successfully cooled to T = 100 K at only 0.1 K/s without additional penetrating cryoprotectants. Slow cooling provides an alternative when flash cooling fails, and enables diffraction studies of protein structure and function at all temperatures between T = 300 K and T = 100 K.

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Year:  2009        PMID: 20012211      PMCID: PMC2856773          DOI: 10.1007/s10969-009-9074-y

Source DB:  PubMed          Journal:  J Struct Funct Genomics        ISSN: 1345-711X


  21 in total

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Journal:  Eur Biophys J       Date:  2001-09       Impact factor: 1.733

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Authors:  Dominique Bourgeois; Antoine Royant
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Review 3.  Cryocooling and radiation damage in macromolecular crystallography.

Authors:  Elspeth F Garman; Robin Leslie Owen
Journal:  Acta Crystallogr D Biol Crystallogr       Date:  2005-12-14

4.  The temperature of flash-cooling has dramatic effects on the diffraction quality of nucleosome crystals.

Authors:  Rajeswari S Edayathumangalam; Karolin Luger
Journal:  Acta Crystallogr D Biol Crystallogr       Date:  2005-06-24

Review 5.  Cryo-cooling in macromolecular crystallography: advantages, disadvantages and optimization.

Authors:  Douglas H Juers; Brian W Matthews
Journal:  Q Rev Biophys       Date:  2004-05       Impact factor: 5.318

6.  Shoot-and-Trap: use of specific x-ray damage to study structural protein dynamics by temperature-controlled cryo-crystallography.

Authors:  Jacques-Philippe Colletier; Dominique Bourgeois; Benoît Sanson; Didier Fournier; Joel L Sussman; Israel Silman; Martin Weik
Journal:  Proc Natl Acad Sci U S A       Date:  2008-08-13       Impact factor: 11.205

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Journal:  Annu Rev Biophys Biophys Chem       Date:  1990

8.  Characterizing the secondary hydration shell on hydrated myoglobin, hemoglobin, and lysozyme powders by its vitrification behavior on cooling and its calorimetric glass-->liquid transition and crystallization behavior on reheating.

Authors:  G Sartor; A Hallbrucker; E Mayer
Journal:  Biophys J       Date:  1995-12       Impact factor: 4.033

9.  Quantifying X-ray radiation damage in protein crystals at cryogenic temperatures.

Authors:  Jan Kmetko; Naji S Husseini; Matthew Naides; Yevgeniy Kalinin; Robert E Thorne
Journal:  Acta Crystallogr D Biol Crystallogr       Date:  2006-08-19

10.  Structure of a B-DNA dodecamer at 16 K.

Authors:  H R Drew; S Samson; R E Dickerson
Journal:  Proc Natl Acad Sci U S A       Date:  1982-07       Impact factor: 11.205

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  5 in total

1.  Radiation decay of thaumatin crystals at three X-ray energies.

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2.  Global radiation damage: temperature dependence, time dependence and how to outrun it.

Authors:  Matthew Warkentin; Jesse B Hopkins; Ryan Badeau; Anne M Mulichak; Lisa J Keefe; Robert E Thorne
Journal:  J Synchrotron Radiat       Date:  2012-11-29       Impact factor: 2.616

3.  Solvent flows, conformation changes and lattice reordering in a cold protein crystal.

Authors:  David W Moreau; Hakan Atakisi; Robert E Thorne
Journal:  Acta Crystallogr D Struct Biol       Date:  2019-10-31       Impact factor: 7.652

4.  Lifetimes and spatio-temporal response of protein crystals in intense X-ray microbeams.

Authors:  Matthew A Warkentin; Hakan Atakisi; Jesse B Hopkins; Donald Walko; Robert E Thorne
Journal:  IUCrJ       Date:  2017-10-13       Impact factor: 4.769

5.  Ice formation and solvent nanoconfinement in protein crystals.

Authors:  David W Moreau; Hakan Atakisi; Robert E Thorne
Journal:  IUCrJ       Date:  2019-03-13       Impact factor: 4.769

  5 in total

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