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Osmotic effectors in kidneys of xeric and mesic rodents: corticomedullary distributions and changes with water availability.

作者信息

Yancey P H

机构信息

Biology Department, Whitman College, Walla Walla, Washington 99362.

出版信息

J Comp Physiol B. 1988;158(3):369-80. doi: 10.1007/BF00695336.

DOI:10.1007/BF00695336
PMID:3057002
Abstract

Urea, sodium, the methylamines glycine betaine and glycerophosphorylcholine (GPC), and the polyols sorbitol and myo-inositol are reported to be the major osmolytes in kidneys of laboratory mammals. These were measured (millimoles per kilogram wet weight) in kidney regions and urines of three species of wild rodents with different dehydration tolerances: the pocket mouse Perognathus parvus (xeric), vole Microtus montanus (mesic), and deer mouse Peromyscus m. gambeli (intermediate). In animals kept without water for 4-6 days, sodium, urea, betaine and GPC + choline were found in gradients increasing from cortex to outer to inner medulla in all species, with Perognathus having the highest levels. Sorbitol was high in the inner medulla but low in the cortex and outer medulla; inositol was highest in the outer medulla. Totals of methylamines and methylamines plus polyols in the medulla showed high linear correlations (positive) with urea and with sodium values. Whole medullae were analyzed at several time points in Microtus and Peromyscus subject to water diuresis followed by antidiuresis. In 102 h diuresis in Microtus, all osmolytes decreased except inositol; however, only urea, sodium and sorbitol reached new steady states within 24 h. Urea returned to initial values in 18 h antidiuresis, while other osmolytes required up to 90 h. In Peromyscus, all osmolytes except the polyols declined in diuresis (max. 78 h test period). During antidiuresis, urea and GPC + choline rose to initial values in 18 h, with sodium and betaine requiring more time. In plots of both species combined, total methylamines + polyols correlated linearly (positive) with sodium, and GPC + choline with urea. Estimates of tissue concentrations suggest that total methylamines + polyols can account for intracellular osmotic balance in all species in antidiuresis and that sufficient concentrations of methylamines may be present to counteract perturbing effects of urea on proteins.

摘要

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Salt potentiates methylamine counteraction system to offset the deleterious effects of urea on protein stability and function.盐增强甲胺对抗系统,以抵消尿素对蛋白质稳定性和功能的有害影响。
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Living with urea stress.与尿素应激共存。

本文引用的文献

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