Literature DB >> 35330975

Kv1.3 Channel Inhibition Limits Uremia-Induced Calcification in Mouse and Human Vascular Smooth Muscle.

Violeta Cazaña-Pérez1,2, Pilar Cidad3, Juan F Navarro-González2, Jorge Rojo-Mencía3, Frederic Jaisser4, José R López-López3, Diego Alvarez de la Rosa1, Teresa Giraldez1, Maria Teresa Pérez-García3.   

Abstract

Chronic kidney disease (CKD) significantly increases cardiovascular risk. In advanced CKD stages, accumulation of toxic circulating metabolites and mineral metabolism alterations triggers vascular calcification, characterized by vascular smooth muscle cell (VSMC) transdifferentiation and loss of the contractile phenotype. Phenotypic modulation of VSMC occurs with significant changes in gene expression. Even though ion channels are an integral component of VSMC function, the effects of uremia on ion channel remodeling has not been explored. We used an in vitro model of uremia-induced calcification of human aorta smooth muscle cells (HASMCs) to study the expression of 92 ion channel subunit genes. Uremic serum-induced extensive remodeling of ion channel expression consistent with loss of excitability but different from the one previously associated with transition from contractile to proliferative phenotypes. Among the ion channels tested, we found increased abundance and activity of voltage-dependent K+ channel Kv1.3. Enhanced Kv1.3 expression was also detected in aorta from a mouse model of CKD. Pharmacological inhibition or genetic ablation of Kv1.3 decreased the amount of calcium phosphate deposition induced by uremia, supporting an important role for this channel on uremia-induced VSMC calcification.
© The Author(s) 2020. Published by Oxford University Press on behalf of American Physiological Society.

Entities:  

Keywords:  BK channels; chronic kidney disease; ion channel remodeling; phenotypic switch; voltage-dependent potassium channels

Year:  2020        PMID: 35330975      PMCID: PMC8788811          DOI: 10.1093/function/zqaa036

Source DB:  PubMed          Journal:  Function (Oxf)        ISSN: 2633-8823


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