Autonomic control of the urogenital tract

被引:15
作者
Jobling, Phillip [1 ]
机构
[1] Univ Newcastle, Fac Hlth, Sch Biomed Sci & Pharm, Callaghan, NSW 2308, Australia
来源
AUTONOMIC NEUROSCIENCE-BASIC & CLINICAL | 2011年 / 165卷 / 01期
关键词
Pelvic organs; Kidney; Reproductive tract; Vertebrates; Avian; Reptile; Fish; Autonomic ganglia; NITRIC-OXIDE SYNTHASE; TOAD BUFO-MARINUS; GENE-RELATED PEPTIDE; RAT URINARY-BLADDER; PIG UTERINE ARTERY; VASOACTIVE-INTESTINAL-PEPTIDE; BULLFROG SYMPATHETIC-GANGLIA; PURINERGIC NERVE-STIMULATION; DOGFISH SQUALUS-ACANTHIAS; OSTRICH STRUTHIO-CAMELUS;
D O I
10.1016/j.autneu.2010.07.004
中图分类号
Q189 [神经科学];
学科分类号
071006 ;
摘要
The urogenital tract houses many of the organs that play a major role in homeostasis, in particular those that control water and salt balance, and reproductive function. This review focuses on the anatomical and functional innervation of the kidneys, urinary ducts and bladders of the urinary system, and the gonads, gonadal ducts, and intromittent organs of the reproductive tract. The literature, especially in recent years, is overwhelmingly skewed toward the situation in mammals. Nevertheless, where specific neurochemical markers have been investigated, common patterns of innervation can be found in representatives from most vertebrate classes. Not surprisingly the vasculature, epithelia and smooth muscle of all urogenital organs receives adrenergic innervation. These nerves may contain non-adrenergic non-cholinergic (NANC) neurotransmitters such as ATP and NPY. Cholinergic nerves increase motility in most urogenital organs with the exception of the kidney. The major NANC nerves found to influence urogenital organs include those containing VIP/PACAP, galanin and neuronal nitric oxide synthase. These can be found associated with both smooth muscle and epithelia. The role these nerves play, and the circumstances where they are activated are for the most part unknown. (C) 2010 Elsevier B.V. All rights reserved.
引用
收藏
页码:113 / 126
页数:14
相关论文
共 50 条
[31]   Sympathetic innervation of the development, maturity, and aging of the gastrointestinal tract [J].
Masliukov, Petr M. ;
Emanuilov, Andrey, I ;
Budnik, Antonina F. .
ANATOMICAL RECORD-ADVANCES IN INTEGRATIVE ANATOMY AND EVOLUTIONARY BIOLOGY, 2023, 306 (09) :2249-2263
[32]   Autonomic innervation of the fish gut [J].
Olsson, Catharina .
ACTA HISTOCHEMICA, 2009, 111 (03) :185-195
[33]   Autonomic Innervation of the Periglomerular Arteries [J].
Milosavljevic, Zoran ;
Zelen, Ivanka ;
Sazdanovic, Maja .
ANALYTICAL AND QUANTITATIVE CYTOPATHOLOGY AND HISTOPATHOLOGY, 2014, 36 (03) :161-166
[34]   Spinal relay neurons for central control of autonomic pathways in a photoperiodic rodent [J].
Reuss, Stefan .
JOURNAL OF INTEGRATIVE NEUROSCIENCE, 2021, 20 (03) :561-571
[35]   Autonomic control of blood pressure and heart rate in obese hypertensive dogs [J].
Truett, AA ;
Borne, AT ;
Poincot, MA ;
West, DB .
AMERICAN JOURNAL OF PHYSIOLOGY-REGULATORY INTEGRATIVE AND COMPARATIVE PHYSIOLOGY, 1996, 270 (03) :R541-R549
[36]   Urogenital tuberculosis: definition and classification [J].
Kulchavenya, Ekaterina .
THERAPEUTIC ADVANCES IN INFECTIOUS DISEASE, 2014, 2 (5-6) :117-122
[37]   IMPACT OF THE AUTONOMIC NERVOUS SYSTEM ON THE SKELETON [J].
Elefteriou, Florent .
PHYSIOLOGICAL REVIEWS, 2018, 98 (03) :1083-1112
[38]   Comparative anatomy of the autonomic nervous system [J].
Nilsson, Stefan .
AUTONOMIC NEUROSCIENCE-BASIC & CLINICAL, 2011, 165 (01) :3-9
[39]   Neural Control of the Lower Urinary Tract: Peripheral and Spinal Mechanisms [J].
Birder, L. ;
de Groat, W. ;
Mills, I. ;
Morrison, J. ;
Thor, K. ;
Drake, M. .
NEUROUROLOGY AND URODYNAMICS, 2010, 29 (01) :128-139
[40]   Urogenital, anomalies in human male fetuses [J].
Favorito, LA ;
Cardinot, TM ;
Morais, ARM ;
Sampaio, FJB .
EARLY HUMAN DEVELOPMENT, 2004, 79 (01) :41-47