Literature DB >> 21546608

Pannexin1 regulates α1-adrenergic receptor- mediated vasoconstriction.

Marie Billaud1, Alexander W Lohman, Adam C Straub, Robin Looft-Wilson, Scott R Johnstone, Christina A Araj, Angela K Best, Faraaz B Chekeni, Kodi S Ravichandran, Silvia Penuela, Dale W Laird, Brant E Isakson.   

Abstract

RATIONALE: The coordination of vascular smooth muscle cell constriction plays an important role in vascular function, such as regulation of blood pressure; however, the mechanism responsible for vascular smooth muscle cell communication is not clear in the resistance vasculature. Pannexins (Panx) are purine-releasing channels permeable to the vasoconstrictor ATP and thus may play a role in the coordination of vascular smooth muscle cell constriction.
OBJECTIVE: We investigated the role of pannexins in phenylephrine- and KCl-mediated constriction of resistance arteries. METHODS AND
RESULTS: Western blot, immunohistochemistry, and immunogold labeling coupled to scanning and transmission electron microscopy revealed the presence of Panx1 but not Panx2 or Panx3 in thoracodorsal resistance arteries. Functionally, the contractile response of pressurized thoracodorsal resistance arteries to phenylephrine was decreased significantly by multiple Panx inhibitors (mefloquine, probenecid, and (10)Panx1), ectonucleotidase (apyrase), and purinergic receptor inhibitors (suramin and reactive blue-2). Electroporation of thoracodorsal resistance arteries with either Panx1-green fluorescent protein or Panx1 small interfering RNA showed enhanced and decreased constriction, respectively, in response to phenylephrine. Lastly, the Panx inhibitors did not alter constriction in response to KCl. This result is consistent with coimmunoprecipitation experiments from thoracodorsal resistance arteries, which suggested an association between Panx1 and α1D-adrenergic receptor.
CONCLUSIONS: Our data demonstrate for the first time a key role for Panx1 in resistance arteries by contributing to the coordination of vascular smooth muscle cell constriction and possibly to the regulation of blood pressure.

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Year:  2011        PMID: 21546608      PMCID: PMC3135971          DOI: 10.1161/CIRCRESAHA.110.237594

Source DB:  PubMed          Journal:  Circ Res        ISSN: 0009-7330            Impact factor:   17.367


  12 in total

1.  Intercellular communication: role of gap junctions in establishing the pattern of ATP-elicited Ca2+ oscillations and Ca2+-dependent currents in freshly isolated aortic smooth muscle cells.

Authors:  M Fanchaouy; K Serir; J J Meister; J L Beny; R Bychkov
Journal:  Cell Calcium       Date:  2005-01       Impact factor: 6.817

Review 2.  Dual control of vascular tone and remodelling by ATP released from nerves and endothelial cells.

Authors:  Geoffrey Burnstock
Journal:  Pharmacol Rep       Date:  2008 Jan-Feb       Impact factor: 3.024

3.  Flow control among microvessels coordinated by intercellular conduction.

Authors:  S S Segal; B R Duling
Journal:  Science       Date:  1986-11-14       Impact factor: 47.728

4.  Mefloquine blockade of Pannexin1 currents: resolution of a conflict.

Authors:  Rodolfo Iglesias; David C Spray; Eliana Scemes
Journal:  Cell Commun Adhes       Date:  2009-12

5.  Pannexin-1 mediates large pore formation and interleukin-1beta release by the ATP-gated P2X7 receptor.

Authors:  Pablo Pelegrin; Annmarie Surprenant
Journal:  EMBO J       Date:  2006-10-12       Impact factor: 11.598

6.  Myoendothelial coupling is not prominent in arterioles within the mouse cremaster microcirculation in vivo.

Authors:  Daniel Siegl; Michael Koeppen; Stephanie E Wölfle; Ulrich Pohl; Cor de Wit
Journal:  Circ Res       Date:  2005-09-15       Impact factor: 17.367

7.  Adrenergic receptor activation involves ATP release and feedback through purinergic receptors.

Authors:  Yuka Sumi; Tobias Woehrle; Yu Chen; Yongli Yao; Andrew Li; Wolfgang G Junger
Journal:  Am J Physiol Cell Physiol       Date:  2010-07-28       Impact factor: 4.249

8.  Connexin isoform expression in smooth muscle cells and endothelial cells of hamster cheek pouch arterioles and retractor feed arteries.

Authors:  Chady H Hakim; William F Jackson; Steven S Segal
Journal:  Microcirculation       Date:  2008-08       Impact factor: 2.628

Review 9.  Pannexins, distant relatives of the connexin family with specific cellular functions?

Authors:  Catheleyne D'hondt; Raf Ponsaerts; Humbert De Smedt; Geert Bultynck; Bernard Himpens
Journal:  Bioessays       Date:  2009-09       Impact factor: 4.345

10.  NTPDase1 (CD39) controls nucleotide-dependent vasoconstriction in mouse.

Authors:  Gilles Kauffenstein; Annick Drouin; Nathalie Thorin-Trescases; Hélène Bachelard; Bernard Robaye; Pedro D'Orléans-Juste; François Marceau; Eric Thorin; Jean Sévigny
Journal:  Cardiovasc Res       Date:  2010-01-01       Impact factor: 10.787

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  79 in total

1.  Pannexin protein expression in the rat middle cerebral artery.

Authors:  Alan R Burns; Sharon C Phillips; Elke M Sokoya
Journal:  J Vasc Res       Date:  2012-02-01       Impact factor: 1.934

2.  Expression of pannexin isoforms in the systemic murine arterial network.

Authors:  Alexander W Lohman; Marie Billaud; Adam C Straub; Scott R Johnstone; Angela K Best; Monica Lee; Kevin Barr; Silvia Penuela; Dale W Laird; Brant E Isakson
Journal:  J Vasc Res       Date:  2012-06-26       Impact factor: 1.934

Review 3.  Interaction between nitric oxide signaling and gap junctions: effects on vascular function.

Authors:  R C Looft-Wilson; M Billaud; S R Johnstone; A C Straub; B E Isakson
Journal:  Biochim Biophys Acta       Date:  2011-07-28

4.  The Protein Acyl Transferase ZDHHC21 Modulates α1 Adrenergic Receptor Function and Regulates Hemodynamics.

Authors:  Ethan P Marin; Levente Jozsef; Annarita Di Lorenzo; Kara F Held; Amelia K Luciano; Jonathan Melendez; Leonard M Milstone; Heino Velazquez; William C Sessa
Journal:  Arterioscler Thromb Vasc Biol       Date:  2015-12-29       Impact factor: 8.311

5.  Pannexin 1, an ATP release channel, is activated by caspase cleavage of its pore-associated C-terminal autoinhibitory region.

Authors:  Joanna K Sandilos; Yu-Hsin Chiu; Faraaz B Chekeni; Allison J Armstrong; Scott F Walk; Kodi S Ravichandran; Douglas A Bayliss
Journal:  J Biol Chem       Date:  2012-02-06       Impact factor: 5.157

6.  Probenecid Inhibits α-Adrenergic Receptor-Mediated Vasoconstriction in the Human Leg Vasculature.

Authors:  Michael Nyberg; Peter Piil; Oliver T Kiehn; Christian Maagaard; Tue S Jørgensen; Jon Egelund; Brant E Isakson; Morten S Nielsen; Lasse Gliemann; Ylva Hellsten
Journal:  Hypertension       Date:  2017-10-30       Impact factor: 10.190

7.  S-nitrosylation inhibits pannexin 1 channel function.

Authors:  Alexander W Lohman; Janelle L Weaver; Marie Billaud; Joanna K Sandilos; Rachael Griffiths; Adam C Straub; Silvia Penuela; Norbert Leitinger; Dale W Laird; Douglas A Bayliss; Brant E Isakson
Journal:  J Biol Chem       Date:  2012-10-02       Impact factor: 5.157

8.  Panx1 regulates cellular properties of keratinocytes and dermal fibroblasts in skin development and wound healing.

Authors:  Silvia Penuela; John J Kelly; Jared M Churko; Kevin J Barr; Amy C Berger; Dale W Laird
Journal:  J Invest Dermatol       Date:  2014-02-12       Impact factor: 8.551

Review 9.  Vascular Smooth Muscle Remodeling in Conductive and Resistance Arteries in Hypertension.

Authors:  Isola A M Brown; Lukas Diederich; Miranda E Good; Leon J DeLalio; Sara A Murphy; Miriam M Cortese-Krott; Jennifer L Hall; Thu H Le; Brant E Isakson
Journal:  Arterioscler Thromb Vasc Biol       Date:  2018-09       Impact factor: 8.311

Review 10.  Pannexin 1 in the regulation of vascular tone.

Authors:  Marie Billaud; Joanna K Sandilos; Brant E Isakson
Journal:  Trends Cardiovasc Med       Date:  2012-07-28       Impact factor: 6.677

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