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膀胱传入信号:最新发现。

Bladder afferent signaling: recent findings.

机构信息

Department of Medicine and Pharmacology, University of Pittsburgh, Pittsburgh, Pennsylvania 15261, USA.

出版信息

J Urol. 2010 Apr;183(4):1288-95. doi: 10.1016/j.juro.2009.12.060. Epub 2010 Feb 19.

Abstract

PURPOSE

Much current research on lower urinary tract physiology focuses on afferent mechanisms. The main goals are to define and control the signaling pathways by which afferent information is generated and conveyed to the central nervous system. We summarize recent research on bladder afferent mechanisms.

MATERIALS AND METHODS

We systematically reviewed the literature by searching PubMed up to June 2009 with focus on the last 5 years.

RESULTS

At least 2 signaling pathways can be identified, including the urothelial and the myogenic pathway. The urothelial pathway is a functional unit consisting of the urothelium, interstitial cells and afferent nerves in the lamina propria. Signaling occurs via muscle-mucosal mechanoreceptors, mucosal mechanoreceptors and chemoreceptors. The myogenic pathway is activated via in-series mechanoreceptors responding to distention and via spontaneous contractile activity in units of myocytes generating afferent noise.

CONCLUSIONS

To control dysfunctional micturition we must know more about all components involved in normal micturition control, including how afferent information is handled by the central nervous system.

摘要

目的

目前许多关于下尿路生理学的研究都集中在传入机制上。主要目标是定义和控制信号通路,通过这些信号通路,传入信息被产生并传递到中枢神经系统。我们总结了最近关于膀胱传入机制的研究。

材料和方法

我们通过在 PubMed 上搜索,系统地回顾了截至 2009 年 6 月的文献,重点是过去 5 年的文献。

结果

至少可以确定 2 种信号通路,包括尿路上皮途径和肌源性途径。尿路上皮途径是一个由尿路上皮、间质细胞和固有层中的传入神经组成的功能单位。信号通过肌肉黏膜机械感受器、黏膜机械感受器和化学感受器发生。肌源性途径通过串联机械感受器对扩张的反应以及通过肌细胞产生传入噪声的自发收缩活动来激活。

结论

为了控制功能性排尿障碍,我们必须更多地了解正常排尿控制中涉及的所有成分,包括中枢神经系统如何处理传入信息。

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