Post-freeze-thaw viabilities of spleen slices by measurement of nucleic acid and protein syntheses

Unprotected cells deteriorate further in the 3 hrs post-thaw. Protection by a cryophylactic agent is partly explained by the cells' ability to return to reasonable DNA-dependent functions after return to normal body temperature, in the presence of oxygen and nutrients. Bacteria show a remarkabl...

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Veröffentlicht in:Cryobiology 1969-11, Vol.6 (3), p.249-256
Hauptverfasser: Henderson, Ian W.D., Angeloff, Luben
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container_issue 3
container_start_page 249
container_title Cryobiology
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creator Henderson, Ian W.D.
Angeloff, Luben
description Unprotected cells deteriorate further in the 3 hrs post-thaw. Protection by a cryophylactic agent is partly explained by the cells' ability to return to reasonable DNA-dependent functions after return to normal body temperature, in the presence of oxygen and nutrients. Bacteria show a remarkable stimulation of post-thaw functions compared to mammalian cells. Early recovery is seen in high levels of lipid and glycoprotein syntheses. Oxygen consumption is much more affected by cold than is CO 2 release, reflecting specifically located intracellular damage. The fact that different tracers produced conflicting patterns is unexplained, but it is conjectured that glucose to protein is a separate mechanism compared to simple incorporation of labeled leucine. Similarly, incorporation of the sugar into the RNA nucleotides represent a different facet from base incorporation. The over-all patterns suggest the possibility that DNA that is capable of repair (by nucleases and polymerases) is the crucial factor in recovery from freeze injury, in that the other biosynthetic functions are DNA-dependent.
doi_str_mv 10.1016/S0011-2240(69)80356-1
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subjects Adenine - metabolism
Aldehydes - pharmacology
Animals
Carbon Dioxide - metabolism
Carbon Isotopes
Cryoprotective Agents - pharmacology
Dimethyl Sulfoxide - pharmacology
DNA - biosynthesis
Freezing
Glucose - metabolism
In Vitro Techniques
Leucine - metabolism
Liver Extracts - pharmacology
Oxygen Consumption
Protein Biosynthesis
Rats
RNA - biosynthesis
Spleen - metabolism
Uridine - metabolism
title Post-freeze-thaw viabilities of spleen slices by measurement of nucleic acid and protein syntheses
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