Literature DB >> 28965207

Phoenixin-14: detection and novel physiological implications in cardiac modulation and cardioprotection.

C Rocca1, F Scavello1, M C Granieri1, T Pasqua1,2, N Amodio3, S Imbrogno2,4, A Gattuso2,4, R Mazza2,4, Maria Carmela Cerra5,6, Tommaso Angelone7,8.   

Abstract

Phoenixin-14 (PNX) is a newly identified peptide co-expressed in the hypothalamus with the anorexic and cardioactive Nesfatin-1. Like Nesfatin-1, PNX is able to cross the blood-brain barrier and this suggests a role in peripheral modulation. Preliminary mass spectrography data indicate that, in addition to the hypothalamus, PNX is present in the mammalian heart. This study aimed to quantify PNX expression in the rat heart, and to evaluate whether the peptide influences the myocardial function under basal condition and in the presence of ischemia/reperfusion (I/R). By ELISA the presence of PNX was detected in both hypothalamus and heart. In plasma of normal, but not of obese rats, the peptide concentrations increased after meal. Exposure of the isolated and Langendorff perfused rat heart to exogenous PNX induces a reduction of contractility and relaxation, without effects on coronary pressure and heart rate. As revealed by immunoblotting, these effects were accompanied by an increase of Erk1/2, Akt and eNOS phosphorylation. PNX (EC50 dose), administered after ischemia, induced post-conditioning-like cardioprotection. This was revealed by a smaller infarct size and a better systolic recovery with respect to those detected on hearts exposed to I/R alone. The peptide also activates the cardioprotective RISK and SAFE cascades and inhibits apoptosis. These effects were also observed in the heart of obese rats. Our data provide a first evidence on the peripheral activity of PNX and on its direct cardiomodulatory and cardioprotective role under both normal conditions and in the presence of metabolic disorders.

Entities:  

Keywords:  Cardiac function; Cardioprotection; Intracellular signaling; Phoenixin-14

Mesh:

Substances:

Year:  2017        PMID: 28965207     DOI: 10.1007/s00018-017-2661-3

Source DB:  PubMed          Journal:  Cell Mol Life Sci        ISSN: 1420-682X            Impact factor:   9.261


  34 in total

1.  Adenosine-induced second window of protection is mediated by inhibition of mitochondrial permeability transition pore opening at the time of reperfusion.

Authors:  Derek J Hausenloy; Derek M Yellon
Journal:  Cardiovasc Drugs Ther       Date:  2004-01       Impact factor: 3.727

2.  No risk, no ... cardioprotection? A critical perspective.

Authors:  Gerd Heusch
Journal:  Cardiovasc Res       Date:  2009-08-27       Impact factor: 10.787

Review 3.  Myocardial protection in reperfusion with postconditioning.

Authors:  Jakob Vinten-Johansen; Zhi-Qing Zhao; Rong Jiang; Amanda J Zatta
Journal:  Expert Rev Cardiovasc Ther       Date:  2005-11

4.  Postconditioning with glucagon like peptide-2 reduces ischemia/reperfusion injury in isolated rat hearts: role of survival kinases and mitochondrial KATP channels.

Authors:  Claudia Penna; Teresa Pasqua; Maria-Giulia Perrelli; Pasquale Pagliaro; Maria Carmela Cerra; Tommaso Angelone
Journal:  Basic Res Cardiol       Date:  2012-06-15       Impact factor: 17.165

Review 5.  Current perspectives in diastolic dysfunction and diastolic heart failure.

Authors:  Adelino F Leite-Moreira
Journal:  Heart       Date:  2006-05       Impact factor: 5.994

Review 6.  Regulation of myocardial calcium channels by cyclic AMP metabolism.

Authors:  L Hove-Madsen; P F Méry; J Jurevicius; A V Skeberdis; R Fischmeister
Journal:  Basic Res Cardiol       Date:  1996       Impact factor: 17.165

7.  Beta3-adrenoceptors modulate left ventricular relaxation in the rat heart via the NO-cGMP-PKG pathway.

Authors:  T Angelone; E Filice; A M Quintieri; S Imbrogno; A Recchia; E Pulerà; C Mannarino; D Pellegrino; M C Cerra
Journal:  Acta Physiol (Oxf)       Date:  2008-01-17       Impact factor: 6.311

8.  Myocardial reperfusion injury management: erythropoietin compared with postconditioning.

Authors:  Sophie Tamareille; Nehmat Ghaboura; Frederic Treguer; Dalia Khachman; Anne Croué; Daniel Henrion; Alain Furber; Fabrice Prunier
Journal:  Am J Physiol Heart Circ Physiol       Date:  2009-07-17       Impact factor: 4.733

9.  Electronegative low-density lipoprotein induces cardiomyocyte apoptosis indirectly through endothelial cell-released chemokines.

Authors:  An-Sheng Lee; Guei-Jane Wang; Hua-Chen Chan; Fang-Yu Chen; Chia-Ming Chang; Chao-Yuh Yang; Yuan-Teh Lee; Kuan-Cheng Chang; Chu-Huang Chen
Journal:  Apoptosis       Date:  2012-09       Impact factor: 4.677

10.  Vagal nerve stimulation protects cardiac injury by attenuating mitochondrial dysfunction in a murine burn injury model.

Authors:  Xiaojiong Lu; Todd Costantini; Nicole E Lopez; Paul L Wolf; Ann-Marie Hageny; James Putnam; Brian Eliceiri; Raul Coimbra
Journal:  J Cell Mol Med       Date:  2013-04-12       Impact factor: 5.310

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  17 in total

Review 1.  Phoenixin: uncovering its receptor, signaling and functions.

Authors:  Emma K Mcilwraith; Denise D Belsham
Journal:  Acta Pharmacol Sin       Date:  2018-04-19       Impact factor: 6.150

2.  Investigation of serum phoenixin levels in patients with hypertension.

Authors:  Sadinaz Akdu; Ummugulsum Can; Esra Polat
Journal:  Rev Assoc Med Bras (1992)       Date:  2022-06-24       Impact factor: 1.712

3.  Phoenixin-14 alters transcriptome and steroid profiles in female green-spotted puffer (Dichotomyctere nigroviridis).

Authors:  Timothy S Breton; Casey A Murray; Sierra R Huff; Anyssa M Phaneuf; Bethany M Tripp; Sarah J Patuel; Christopher J Martyniuk; Matthew A DiMaggio
Journal:  Sci Rep       Date:  2022-06-08       Impact factor: 4.996

4.  Phoenixin-20 suppresses food intake, modulates glucoregulatory enzymes, and enhances glycolysis in zebrafish.

Authors:  Jithine Jayakumar Rajeswari; Ayelén Melisa Blanco; Suraj Unniappan
Journal:  Am J Physiol Regul Integr Comp Physiol       Date:  2020-03-25       Impact factor: 3.619

Review 5.  The phoenixins: From discovery of the hormone to identification of the receptor and potential physiologic actions.

Authors:  Lauren M Stein; Christopher J Haddock; Willis K Samson; Grant R Kolar; Gina L C Yosten
Journal:  Peptides       Date:  2018-06-19       Impact factor: 3.750

6.  Phoenixin Expression Is Regulated by the Fatty Acids Palmitate, Docosahexaenoic Acid and Oleate, and the Endocrine Disrupting Chemical Bisphenol A in Immortalized Hypothalamic Neurons.

Authors:  Emma K McIlwraith; Neruja Loganathan; Denise D Belsham
Journal:  Front Neurosci       Date:  2018-11-15       Impact factor: 4.677

Review 7.  Neuropeptides in gut-brain axis and their influence on host immunity and stress.

Authors:  Pingli Wei; Caitlin Keller; Lingjun Li
Journal:  Comput Struct Biotechnol J       Date:  2020-03-04       Impact factor: 7.271

8.  Characterization of the G protein-coupled receptor family SREB across fish evolution.

Authors:  Timothy S Breton; William G B Sampson; Benjamin Clifford; Anyssa M Phaneuf; Ilze Smidt; Tamera True; Andrew R Wilcox; Taylor Lipscomb; Casey Murray; Matthew A DiMaggio
Journal:  Sci Rep       Date:  2021-06-08       Impact factor: 4.379

9.  Notch1 Mediates Preconditioning Protection Induced by GPER in Normotensive and Hypertensive Female Rat Hearts.

Authors:  Carmine Rocca; Saveria Femminò; Giorgio Aquila; Maria C Granieri; Ernestina M De Francesco; Teresa Pasqua; Damiano C Rigiracciolo; Francesca Fortini; Maria C Cerra; Marcello Maggiolini; Pasquale Pagliaro; Paola Rizzo; Tommaso Angelone; Claudia Penna
Journal:  Front Physiol       Date:  2018-05-15       Impact factor: 4.566

Review 10.  Phoenixin-A Pleiotropic Gut-Brain Peptide.

Authors:  Martha A Schalla; Andreas Stengel
Journal:  Int J Mol Sci       Date:  2018-06-11       Impact factor: 5.923

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