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. 1973 Apr 1;61(4):509–527. doi: 10.1085/jgp.61.4.509

The Reponse of Duck Erythrocytes to Norepinephrine and an Elevated Extracellular Potassium

Volume regulation in isotonic media

Floyd M Kregenow 1
PMCID: PMC2203477  PMID: 4694744

Abstract

This paper presents evidence that duck erythrocytes regulate their size in isotonic media by utilizing a previously reported "volume-controlling mechanism." Two different experimental situations are examined. In the first, cells enlarge in a solution containing norepinephrine and an elevated [K]o; and in the second, enlarged cells shrink to their original size if the norepinephrine and excess potassium are removed. As the erythrocytes enlarge, K, Cl, and H2O accumulate. Shrinkage, in contrast, is accompanied by the controlled loss of K, Cl, and H2O. These changes and the associated changes in membrane permeability resemble those reported previously when duck erythrocytes incubate in anisotonic media. There cells, after first shrinking or swelling, utilize a "volume-controlling mechanism" to reestablish their original size. The mechanism regulates cell size by adjusting the total number of osmotically active intracellular particles. The present studies indicate duck red cells use this mechanism to readjust their total monovalent cation content and thus their solute content in isotonic media as well. In addition, evidence is presented which indicates that the "volume-controlling mechanism" and ouabain-inhibitable cation pump differ functionally.

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Selected References

These references are in PubMed. This may not be the complete list of references from this article.

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