Literature DB >> 23130944

Aquaporin-2 regulation in health and disease.

M Judith Radin1, Ming-Jiun Yu, Lene Stoedkilde, R Lance Miller, Jason D Hoffert, Jorgen Frokiaer, Trairak Pisitkun, Mark A Knepper.   

Abstract

Aquaporin-2 (AQP2), the vasopressin-regulated water channel of the renal collecting duct, is dysregulated in numerous disorders of water balance in people and animals, including those associated with polyuria (urinary tract obstruction, hypokalemia, inflammation, and lithium toxicity) and with dilutional hyponatremia (syndrome of inappropriate antidiuresis, congestive heart failure, cirrhosis). Normal regulation of AQP2 by vasopressin involves 2 independent regulatory mechanisms: (1) short-term regulation of AQP2 trafficking to and from the apical plasma membrane, and (2) long-term regulation of the total abundance of the AQP2 protein in the cells. Most disorders of water balance are the result of dysregulation of processes that regulate the total abundance of AQP2 in collecting duct cells. In general, the level of AQP2 in a collecting duct cell is determined by a balance between production via translation of AQP2 mRNA and removal via degradation or secretion into the urine in exosomes. AQP2 abundance increases in response to vasopressin chiefly due to increased translation subsequent to increases in AQP2 mRNA. Vasopressin-mediated regulation of AQP2 gene transcription is poorly understood, although several transcription factor-binding elements in the 5' flanking region of the AQP2 gene have been identified, and candidate transcription factors corresponding to these elements have been discovered in proteomics studies. Here, we review progress in this area and discuss elements of vasopressin signaling in the collecting duct that may impinge on regulation of AQP2 in health and in the context of examples of polyuric diseases.
© 2012 American Society for Veterinary Clinical Pathology.

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Year:  2012        PMID: 23130944      PMCID: PMC3562700          DOI: 10.1111/j.1939-165x.2012.00488.x

Source DB:  PubMed          Journal:  Vet Clin Pathol        ISSN: 0275-6382            Impact factor:   1.180


  162 in total

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2.  Neurogenic diabetes insipidus in a sheep.

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Journal:  J Comp Pathol       Date:  1986-01       Impact factor: 1.311

3.  COX-2 inhibition prevents downregulation of key renal water and sodium transport proteins in response to bilateral ureteral obstruction.

Authors:  Rikke Nørregaard; Boye L Jensen; Chunling Li; Weidong Wang; Mark A Knepper; Søren Nielsen; Jørgen Frøkiaer
Journal:  Am J Physiol Renal Physiol       Date:  2005-04-19

Review 4.  Hereditary polyuric disorders: new concepts and differential diagnosis.

Authors:  Daniel G Bichet
Journal:  Semin Nephrol       Date:  2006-05       Impact factor: 5.299

5.  Regulation of aquaporin-2 gene transcription by GATA-3. off.

Authors:  S Uchida; Y Matsumura; T Rai; S Sasaki; F Marumo
Journal:  Biochem Biophys Res Commun       Date:  1997-03-06       Impact factor: 3.575

6.  GSK3beta mediates renal response to vasopressin by modulating adenylate cyclase activity.

Authors:  Reena Rao; Satish Patel; Chuanming Hao; James Woodgett; Raymond Harris
Journal:  J Am Soc Nephrol       Date:  2010-01-07       Impact factor: 10.121

7.  Idiopathic neurogenic diabetes insipidus in a cat.

Authors:  M H Court; A D Watson
Journal:  Aust Vet J       Date:  1983-08       Impact factor: 1.281

8.  Urinary content of aquaporin 1 and 2 in nephrogenic diabetes insipidus.

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Journal:  J Am Soc Nephrol       Date:  1996-06       Impact factor: 10.121

9.  Lithium-induced downregulation of aquaporin-2 water channel expression in rat kidney medulla.

Authors:  D Marples; S Christensen; E I Christensen; P D Ottosen; S Nielsen
Journal:  J Clin Invest       Date:  1995-04       Impact factor: 14.808

10.  Regulation of collecting duct water channel expression by vasopressin in Brattleboro rat.

Authors:  S R DiGiovanni; S Nielsen; E I Christensen; M A Knepper
Journal:  Proc Natl Acad Sci U S A       Date:  1994-09-13       Impact factor: 11.205

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  26 in total

1.  Analysis of mutations of two Gitelman syndrome family SLC12A3 genes and proposed treatments using Chinese medicine.

Authors:  Jie-Wei Luo; Xiao-Rong Meng; Xiao Yang; Ji-Xing Liang; Fu-Yuan Hong; Xing-Yu Zheng; Wei-Hua Li
Journal:  Chin J Integr Med       Date:  2016-01-29       Impact factor: 1.978

Review 2.  Targeting renal purinergic signalling for the treatment of lithium-induced nephrogenic diabetes insipidus.

Authors:  B K Kishore; N G Carlson; C M Ecelbarger; D E Kohan; C E Müller; R D Nelson; J Peti-Peterdi; Y Zhang
Journal:  Acta Physiol (Oxf)       Date:  2015-05-04       Impact factor: 6.311

3.  Perioperative urinary excretion of aquaporin-2 dependent upon vasopressin in cardiac surgery.

Authors:  Masahiro Fujii; Ryosuke Amitani; Ryuzo Bessho
Journal:  Heart Vessels       Date:  2019-11-07       Impact factor: 2.037

4.  Coordinate adaptations of skeletal muscle and kidney to maintain extracellular [K+] during K+-deficient diet.

Authors:  Brandon E McFarlin; Yuhan Chen; Taylor S Priver; Donna L Ralph; Adriana Mercado; Gerardo Gamba; Meena S Madhur; Alicia A McDonough
Journal:  Am J Physiol Cell Physiol       Date:  2020-08-26       Impact factor: 4.249

5.  P2Y12 Receptor Localizes in the Renal Collecting Duct and Its Blockade Augments Arginine Vasopressin Action and Alleviates Nephrogenic Diabetes Insipidus.

Authors:  Yue Zhang; Janos Peti-Peterdi; Christa E Müller; Noel G Carlson; Younis Baqi; David L Strasburg; Kristina M Heiney; Karie Villanueva; Donald E Kohan; Bellamkonda K Kishore
Journal:  J Am Soc Nephrol       Date:  2015-04-08       Impact factor: 10.121

6.  AQP2 in human urine is predominantly localized to exosomes with preserved water channel activities.

Authors:  Yuko Miyazawa; Saki Mikami; Keiko Yamamoto; Masaki Sakai; Tatsuya Saito; Tadashi Yamamoto; Kenichi Ishibashi; Sei Sasaki
Journal:  Clin Exp Nephrol       Date:  2018-02-02       Impact factor: 2.801

7.  Urinary excretion of the water channel aquaporin 2 correlated with the pharmacological effect of tolvaptan in cirrhotic patients with ascites.

Authors:  Hiroyuki Nakanishi; Masayuki Kurosaki; Takanori Hosokawa; Yuka Takahashi; Jun Itakura; Shoko Suzuki; Yutaka Yasui; Nobuharu Tamaki; Natsuko Nakakuki; Hitomi Takada; Mayu Higuchi; Yasuyuki Komiyama; Tsubasa Yoshida; Kenta Takaura; Tsuguru Hayashi; Konomi Kuwabara; Sei Sasaki; Namiki Izumi
Journal:  J Gastroenterol       Date:  2015-11-26       Impact factor: 7.527

Review 8.  Lithium: a versatile tool for understanding renal physiology.

Authors:  Bellamkonda K Kishore; Carolyn M Ecelbarger
Journal:  Am J Physiol Renal Physiol       Date:  2013-02-13

Review 9.  Collecting duct principal cell transport processes and their regulation.

Authors:  David Pearce; Rama Soundararajan; Christiane Trimpert; Ossama B Kashlan; Peter M T Deen; Donald E Kohan
Journal:  Clin J Am Soc Nephrol       Date:  2014-05-29       Impact factor: 8.237

10.  Tolvaptan regulates aquaporin-2 and fecal water in cirrhotic rats with ascites.

Authors:  Chao Chen; Ren-Pin Chen; Hai-Hua Lin; Wen-You Zhang; Xie-Lin Huang; Zhi-Ming Huang
Journal:  World J Gastroenterol       Date:  2016-03-28       Impact factor: 5.742

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