Literature DB >> 33070663

Microbiota Introduced to Germ-Free Rats Restores Vascular Contractility and Blood Pressure.

Bina Joe1, Cameron G McCarthy1, Jonnelle M Edwards1, Xi Cheng1, Saroj Chakraborty1, Tao Yang1, Rachel M Golonka1, Blair Mell1, Ji-Youn Yeo1, Nicole R Bearss1, Janara Furtado1, Piu Saha1, Beng San Yeoh1, Matam Vijay-Kumar1, Camilla F Wenceslau1.   

Abstract

Commensal gut microbiota are strongly correlated with host hemodynamic homeostasis but only broadly associated with cardiovascular health. This includes a general correspondence of quantitative and qualitative shifts in intestinal microbial communities found in hypertensive rat models and human patients. However, the mechanisms by which gut microbes contribute to the function of organs important for blood pressure (BP) control remain unanswered. To examine the direct effects of microbiota on BP, we conventionalized germ-free (GF) rats with specific pathogen-free rats for a short-term period of 10 days, which served as a model system to observe the dynamic responses when reconstituting the holobiome. The absence of microbiota in GF rats resulted with relative hypotension compared with their conventionalized counterparts, suggesting an obligatory role of microbiota in BP homeostasis. Hypotension observed in GF rats was accompanied by a marked reduction in vascular contractility. Both BP and vascular contractility were restored by the introduction of microbiota to GF rats, indicating that microbiota could impact BP through a vascular-dependent mechanism. This is further supported by the decrease in actin polymerization in arteries from GF rats. Improved vascular contractility in conventionalized GF rats, as indicated through stabilized actin filaments, was associated with an increase in cofilin phosphorylation. These data indicate that the vascular system senses the presence (or lack of) microbiota to maintain vascular tone via actin polymerization. Overall, these results constitute a fundamental discovery of the essential nature of microbiota in BP regulation.

Entities:  

Keywords:  actins depolymerizing factors; blood pressure; homeostasis; microbiota; vasoconstriction

Year:  2020        PMID: 33070663      PMCID: PMC7666075          DOI: 10.1161/HYPERTENSIONAHA.120.15939

Source DB:  PubMed          Journal:  Hypertension        ISSN: 0194-911X            Impact factor:   10.190


  39 in total

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