Literature DB >> 28353076

DOCA-Salt Hypertension: an Update.

Tyler Basting1,2, Eric Lazartigues3,4,5.   

Abstract

Hypertension is a multifaceted disease that is involved in ∼40% of cardiovascular mortalities and is the result of both genetic and environmental factors. Because of its complexity, hypertension has been studied by using various models and approaches, each of which tends to focus on individual organs or tissues to isolate the most critical and treatable causes of hypertension and the related damage to end-organs. Animal models of hypertension have ranged from Goldblatt's kidney clip models in which the origin of the disease is clearly renal to animals that spontaneously develop hypertension either through targeted genetic manipulations, such as the TGR(mRen2)27, or selective breeding resulting in more enigmatic origins, as exemplified by the spontaneously hypertensive rat (SHR). These two genetically derived models simulate the less-common human primary hypertension in which research has been able to define a Mendelian linkage. Several models are more neurogenic or endocrine in nature and illustrate that crosstalk between the nervous system and hormones can cause a significant rise in blood pressure (BP). This review will examine one of these neurogenic models of hypertension, i.e., the deoxycorticosterone acetate (DOCA), reduced renal mass, and high-salt diet (DOCA-salt) rodent model, one of the most common experimental models used today. Although the DOCA-salt model is mainly believed to be neurogenic and has been shown to impact the central and peripheral nervous systems, it also significantly involves many other body organs.

Entities:  

Keywords:  Cardiovascular; DOCA-salt; Immune; Neurogenic hypertension; Neurohormonal; Renal

Mesh:

Substances:

Year:  2017        PMID: 28353076      PMCID: PMC6402842          DOI: 10.1007/s11906-017-0731-4

Source DB:  PubMed          Journal:  Curr Hypertens Rep        ISSN: 1522-6417            Impact factor:   5.369


  77 in total

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Review 2.  High-salt diet and hypertension: focus on the renin-angiotensin system.

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3.  Angiotensin II regulates brain (pro)renin receptor expression through activation of cAMP response element-binding protein.

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Journal:  Hypertension       Date:  2016-10-03       Impact factor: 10.190

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Journal:  Hypertension       Date:  1986-06       Impact factor: 10.190

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Journal:  Am J Hypertens       Date:  1988-07       Impact factor: 2.689

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Journal:  Hypertension       Date:  1988-06       Impact factor: 10.190

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  47 in total

1.  (Pro)renin receptor knockdown in the paraventricular nucleus of the hypothalamus attenuates hypertension development and AT1 receptor-mediated calcium events.

Authors:  Lucas A C Souza; Caleb J Worker; Wencheng Li; Fatima Trebak; Trevor Watkins; Ariana Julia B Gayban; Evan Yamasaki; Silvana G Cooper; Bernard T Drumm; Yumei Feng
Journal:  Am J Physiol Heart Circ Physiol       Date:  2019-03-29       Impact factor: 4.733

2.  ACE2 and ADAM17 Interaction Regulates the Activity of Presympathetic Neurons.

Authors:  Snigdha Mukerjee; Hong Gao; Jiaxi Xu; Ryosuke Sato; Andrea Zsombok; Eric Lazartigues
Journal:  Hypertension       Date:  2019-09-30       Impact factor: 10.190

Review 3.  Connecting sex differences, estrogen signaling, and microRNAs in cardiac fibrosis.

Authors:  Lejla Medzikovic; Laila Aryan; Mansoureh Eghbali
Journal:  J Mol Med (Berl)       Date:  2019-08-26       Impact factor: 4.599

4.  Role of endothelin receptor type A on catecholamine regulation in the olfactory bulb of DOCA-salt hypertensive rats: Hemodynamic implications.

Authors:  María J Guil; Mercedes I Schöller; Luis R Cassinotti; Vinicia C Biancardi; Soledad Pitra; Liliana G Bianciotti; Javier E Stern; Marcelo S Vatta
Journal:  Biochim Biophys Acta Mol Basis Dis       Date:  2019-08-06       Impact factor: 5.187

5.  Increased (pro)renin receptor expression in the subfornical organ of hypertensive humans.

Authors:  Silvana G Cooper; Darshan P Trivedi; Rieko Yamamoto; Caleb J Worker; Cheng-Yuan Feng; Jacob T Sorensen; Wei Yang; Zhenggang Xiong; Yumei Feng
Journal:  Am J Physiol Heart Circ Physiol       Date:  2017-12-22       Impact factor: 4.733

Review 6.  Animal Models of Hypertension: A Scientific Statement From the American Heart Association.

Authors:  Lilach O Lerman; Theodore W Kurtz; Rhian M Touyz; David H Ellison; Alejandro R Chade; Steven D Crowley; David L Mattson; John J Mullins; Jeffrey Osborn; Alfonso Eirin; Jane F Reckelhoff; Costantino Iadecola; Thomas M Coffman
Journal:  Hypertension       Date:  2019-06       Impact factor: 10.190

7.  Impaired renal hemodynamics and glomerular hyperfiltration contribute to hypertension-induced renal injury.

Authors:  Letao Fan; Wenjun Gao; Bond V Nguyen; Joshua R Jefferson; Yedan Liu; Fan Fan; Richard J Roman
Journal:  Am J Physiol Renal Physiol       Date:  2020-08-24

Review 8.  Immune mechanisms of hypertension.

Authors:  Grant R Drummond; Antony Vinh; Tomasz J Guzik; Christopher G Sobey
Journal:  Nat Rev Immunol       Date:  2019-08       Impact factor: 53.106

9.  Glutamatergic neurons of the paraventricular nucleus are critical contributors to the development of neurogenic hypertension.

Authors:  Tyler Basting; Jiaxi Xu; Snigdha Mukerjee; Joel Epling; Robert Fuchs; Srinivas Sriramula; Eric Lazartigues
Journal:  J Physiol       Date:  2018-09-20       Impact factor: 5.182

10.  Kinin B1 Receptor Promotes Neurogenic Hypertension Through Activation of Centrally Mediated Mechanisms.

Authors:  Srinivas Sriramula; Eric Lazartigues
Journal:  Hypertension       Date:  2017-10-16       Impact factor: 10.190

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