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本文引用的文献

1
Diffusion and Electric Mobility of Ions within Isolated Cuticles of Citrus aurantium: Steady-State and Equilibrium Values.离子在酸橙离体角质层中的扩散与电迁移:稳态值与平衡值
Plant Physiol. 1991 Sep;97(1):273-9. doi: 10.1104/pp.97.1.273.
2
Movement of Cations through Cuticles of Citrus aurantium and Acer saccharum: Diffusion Potentials in Mixed Salt Solutions.阳离子通过柑橘和糖枫角质层的运动:混合盐溶液中的扩散电位。
Plant Physiol. 1990 Sep;94(1):120-6. doi: 10.1104/pp.94.1.120.
3
Leaf cuticles behave as asymmetric membranes : evidence from the measurement of diffusion potentials.叶片角质层表现为不对称膜:扩散电位测量的证据。
Plant Physiol. 1990 Jan;92(1):103-9. doi: 10.1104/pp.92.1.103.

KCI 在柑橘属橘果皮中的扩散和电动迁移。

Diffusion and Electric Mobility of KCI within Isolated Cuticles of Citrus aurantium.

机构信息

U.S. Department of Agriculture, Forest Service, Northeastern Forest Experiment Station, P.O. Box 968, Burlington, Vermont 05402.

出版信息

Plant Physiol. 1992 Jul;99(3):1057-61. doi: 10.1104/pp.99.3.1057.

DOI:10.1104/pp.99.3.1057
PMID:16668971
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC1080584/
Abstract

Fick's second law has been used to predict the time course of electrical conductance change in isolated cuticles following the rapid change in bathing solution (KCI) from concentration C to 0.1 C. The theoretical time course is dependent on the coefficient of diffusion of KCI in the cuticle and the cuticle thickness. Experimental results, obtained from cuticles isolated from sour orange (Citrus aurantium), fit with a diffusion model of an isolated cuticle in which about 90% of the conductance change following a solution change is due to salts diffusing from polar pores in the wax, and 10% of the change is due to salt diffusion from the wax. Short and long time constants for the washout of KCI were found to be 0.11 and 3.8 hours, respectively. These time constants correspond to KCI diffusion coefficients of 1 x 10(-15) and 3 x 10(-17) square meters per second, respectively. The larger coefficient is close to the diffusion coefficient for water in polar pores of Citrus reported elsewhere (M Becker, G Kerstiens, J Schönherr [1986] Trees 1: 54-60). This supports our interpretation of the washout kinetics of KCI following a change in concentration of bathing solution.

摘要

菲克第二定律被用来预测在快速改变 bathing solution(KCI)浓度从 C 到 0.1 C 后,孤立表皮中的电导率变化的时间过程。理论时间过程取决于 KCI 在表皮中的扩散系数和表皮厚度。从酸橙(Citrus aurantium)中分离出的表皮获得的实验结果与一个孤立表皮的扩散模型相吻合,其中约 90%的电导变化是由于盐从蜡中的极性孔中扩散引起的,10%的变化是由于盐从蜡中扩散引起的。发现 KCI 的冲洗短时间常数和长时间常数分别为 0.11 和 3.8 小时。这些时间常数对应于 KCI 的扩散系数分别为 1 x 10(-15) 和 3 x 10(-17) 平方米每秒。较大的系数接近在其他地方报道的(M Becker、G Kerstiens、J Schönherr [1986] Trees 1: 54-60)在柑橘类极性孔中水的扩散系数。这支持了我们对浓度浴变化后 KCI 冲洗动力学的解释。