TY - JOUR
T1 - Regulation of Vascular and Renal Function by Metabolite Receptors
AU - Peti-Peterdi, János
AU - Kishore, Bellamkonda K.
AU - Pluznick, Jennifer L.
N1 - Funding Information:
We apologize in advance to all the investigators whose research could not be appropriately cited owing to space limitations. We extend a special thanks to our laboratory members and colleagues for thoughtful comments. The authors'' work cited in this review has been supported by grants from the US Department of Veterans Affairs (VA) and the National Institutes of Health (DK-64324 and DK-10094 to J. Peti-Peterdi, DK-061183 and DK-081041 to B.K. Kishore, and DK-081610 to J.L. Pluznick), by the National Kidney Foundation of Utah and Idaho (to B.K. Kishore), by the Catalyst Grant Program of the University of Utah (to B.K. Kishore), by the Johns Hopkins GI Core Center (to J.L. Pluznick), and by the resources and facilities at the VA Salt Lake City Health Care System (to B.K. Kishore). B.K. Kishore has been supported by the VA Merit Review Program. Additional support includes American Heart Association grant 15GRNT23040039 and American Diabetes Association grant 4-15-CKD-56 to J. Peti-Peterdi and the American Society of Nephrology Gottschalk Award to J.L. Pluznick.
PY - 2016/2/10
Y1 - 2016/2/10
N2 - To maintain metabolic homeostasis, the body must be able to monitor the concentration of a large number of substances, including metabolites, in real time and to use that information to regulate the activities of different metabolic pathways. Such regulation is achieved by the presence of sensors, termed metabolite receptors, in various tissues and cells of the body, which in turn convey the information to appropriate regulatory or positive or negative feedback systems. In this review, we cover the unique roles of metabolite receptors in renal and vascular function. These receptors play a wide variety of important roles in maintaining various aspects of homeostasis-from salt and water balance to metabolism-by sensing metabolites from a wide variety of sources. We discuss the role of metabolite sensors in sensing metabolites generated locally, metabolites generated at distant tissues or organs, or even metabolites generated by resident microbes. Metabolite receptors are also involved in various pathophysiological conditions and are being recognized as potential targets for new drugs. By highlighting three receptor families-(a) citric acid cycle intermediate receptors, (b) purinergic receptors, and (c) short-chain fatty acid receptors-we emphasize the unique and important roles that these receptors play in renal and vascular physiology and pathophysiology.
AB - To maintain metabolic homeostasis, the body must be able to monitor the concentration of a large number of substances, including metabolites, in real time and to use that information to regulate the activities of different metabolic pathways. Such regulation is achieved by the presence of sensors, termed metabolite receptors, in various tissues and cells of the body, which in turn convey the information to appropriate regulatory or positive or negative feedback systems. In this review, we cover the unique roles of metabolite receptors in renal and vascular function. These receptors play a wide variety of important roles in maintaining various aspects of homeostasis-from salt and water balance to metabolism-by sensing metabolites from a wide variety of sources. We discuss the role of metabolite sensors in sensing metabolites generated locally, metabolites generated at distant tissues or organs, or even metabolites generated by resident microbes. Metabolite receptors are also involved in various pathophysiological conditions and are being recognized as potential targets for new drugs. By highlighting three receptor families-(a) citric acid cycle intermediate receptors, (b) purinergic receptors, and (c) short-chain fatty acid receptors-we emphasize the unique and important roles that these receptors play in renal and vascular physiology and pathophysiology.
KW - Gut microbiota
KW - Mitochondria
KW - Nucleotides
KW - SCFA
KW - Short-chain fatty acids
KW - Vascularization
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U2 - 10.1146/annurev-physiol-021115-105403
DO - 10.1146/annurev-physiol-021115-105403
M3 - Review article
C2 - 26667077
AN - SCOPUS:84958622179
SN - 0066-4278
VL - 78
SP - 391
EP - 414
JO - Annual Review of Physiology
JF - Annual Review of Physiology
ER -