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Recent results and new hardware developments for protein crystal growth in microgravity

Authors :
T.L. Nagabhushan
G.S.J. Rao
G. Kamer
Barry C. Finzel
Daniel C. Carter
P. P. Trotta
Terry L. Bray
J. Ding
M.A. Navia
K.P. Wilson
Sthanam V.L. Narayana
Michael Harrington
J. Prahl
J.A. Thomson
F.A. Lewandowski
S.H. Hughes
C.J. Meade
B.G. Harris
E.S. Baker
A. D Clark
K.D. Bowersox
L.J. DeLucas
A. Sacco
R.G. Nanni
Eddy Arnold
S.H. Munson
Karen M. Moore
L.L. Clancy
Howard Einspahr
Charles E. Bugg
William M. Rosenblum
A. Jacobo-Molina
Craig D. Smith
Alexander McPherson
Marianna M. Long
P.F. Cook
B.J. Dunbar
S.P. Bishop
Paul Reichert
Mike Carson
R.N. Richards
E. Trinh
P.C. Weber
Source :
Journal of Crystal Growth. 135:183-195
Publication Year :
1994
Publisher :
Elsevier BV, 1994.

Abstract

Protein crystal growth experiments have been performed on 16 space shuttle missions since April, 1985. The initial experiments utilized vapor diffusion crystallization techniques similar to those used in laboratories for earth-based experiments. More recent experiments have utilized temperature induced crystallization as an alternative method for growing high quality protein crystals in microgravity. Results from both vapor diffusion and temperature induced crystallization experiments indicate that proteins grown in microgravity may be larger, display more uniform morphologies, and yield diffraction data to significantly higher resolutions than the best crystals of these proteins grown on earth.

Details

ISSN :
00220248
Volume :
135
Database :
OpenAIRE
Journal :
Journal of Crystal Growth
Accession number :
edsair.doi...........7de33df0430ca63f8af4c0e336c215ab