Salt-sensitive in vitro protein synthesis by a moderately halophilic bacterium

EXTREMELY halophilic bacteria, such as Halobacterium cutirubrum , grow only in high NaCl concentrations (2.5–5 M) and have very high (5 M or higher) internal concentrations of salts, mainly KCl 1,2 . The ribosomes and protein-synthesising systems of these organisms seem especially adapted to functio...

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Veröffentlicht in:Nature (London) 1977-10, Vol.269 (5631), p.824-825
Hauptverfasser: WYDRO, R. M, MADIRA, W, HIRAMATSU, T, KOGUT, M, KUSHNER, D. J
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container_issue 5631
container_start_page 824
container_title Nature (London)
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creator WYDRO, R. M
MADIRA, W
HIRAMATSU, T
KOGUT, M
KUSHNER, D. J
description EXTREMELY halophilic bacteria, such as Halobacterium cutirubrum , grow only in high NaCl concentrations (2.5–5 M) and have very high (5 M or higher) internal concentrations of salts, mainly KCl 1,2 . The ribosomes and protein-synthesising systems of these organisms seem especially adapted to function in such concentrations 3 . In contrast, moderately halophilic bacteria, such as Vibrio costicola , grow over a much wider range of NaCl concentrations (at least 0.5–3.5 M) 4 . In V. costicola , though not necessarily in all moderate halophiles, the cell-associated monovalent cations are at least as concentrated as those of the external medium. For example, cells growing exponentially in medium containing 1 M NaCl and 0.008 M KC1 can have internal Na + , K + , and NH 4 + concentrations of about 0.6, 0.7 and 0.4 M respectively, as well as 40 mM Mg 2+ (ref. 5 and our unpublished results). Ribosomes from V. costicola differ from those of both extremely halophilic and non-halophilic bacteria in their ability to maintain a ‘standard’ sedimentation pattern (30, 50 and 70 S ) over a wide range of salt concentrations. This pattern is not changed by the NaCl concentration in which the cells are grown 6 . Such properties, however, do not really tell us how well the ribosomes function at different salt concentrations. Studies of in vitro protein synthesis, reported here, suggest that ribosomes may function at much lower salt concentrations than measurements of total cell-associated ions indicated to be present in the cell.
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source MEDLINE; Nature Journals Online; Alma/SFX Local Collection
subjects Bacterial Proteins - biosynthesis
Humanities and Social Sciences
letter
Magnesium - pharmacology
multidisciplinary
Osmolar Concentration
Peptide Biosynthesis
Poly U - metabolism
Ribosomes - metabolism
Salts - pharmacology
Science
Science (multidisciplinary)
Temperature
Vibrio - metabolism
title Salt-sensitive in vitro protein synthesis by a moderately halophilic bacterium
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