Literature DB >> 16179491

Inducing late phase of infarct protection in skeletal muscle by remote preconditioning: efficacy and mechanism.

Michael A Moses1, Patrick D Addison, Peter C Neligan, Homa Ashrafpour, Ning Huang, Sandra E McAllister, Joan E Lipa, Christopher R Forrest, Cho Y Pang.   

Abstract

We have previously demonstrated that remote ischemic preconditioning (IPC) by instigation of three cycles of 10-min occlusion/reperfusion in a hindlimb of the pig elicits an early phase of infarct protection in local and distant skeletal muscles subjected to 4 h of ischemia immediately after remote IPC. The aim of this project was to test our hypothesis that hindlimb remote IPC also induces a late phase of infarct protection in skeletal muscle and that K(ATP) channels play a pivotal role in the trigger and mediator mechanisms. We observed that pig bilateral latissimus dorsi (LD) muscle flaps sustained 46 +/- 2% infarction when subjected to 4 h of ischemia/48 h of reperfusion. The late phase of infarct protection appeared at 24 h and lasted up to 72 h after hindlimb remote IPC. The LD muscle infarction was reduced to 28 +/- 3, 26 +/- 1, 23 +/- 2, 24 +/- 2 and 24 +/- 4% at 24, 28, 36, 48 and 72 h after remote IPC, respectively (P < 0.05; n = 8). In subsequent studies, hindlimb remote IPC or intravenous injection of the sarcolemmal K(ATP) (sK(ATP)) channel opener P-1075 (2 microg/kg) at 24 h before 4 h of sustained ischemia (i.e., late preconditioning) reduced muscle infarction from 43 +/- 4% (ischemic control) to 24 +/- 2 and 19 +/- 3%, respectively (P < 0.05, n = 8). Intravenous injection of the sK(ATP) channel inhibitor HMR 1098 (6 mg/kg) or the nonspecific K(ATP) channel inhibitor glibenclamide (Glib; 1 mg/kg) at 10 min before remote IPC completely blocked the infarct- protective effect of remote IPC in LD muscle flaps subjected to 4 h of sustained ischemia at 24 h after remote IPC. Intravenous bolus injection of the mitochondrial K(ATP) (mK(ATP)) channel inhibitor 5-hydroxydecanoate (5-HD; 5 mg/kg) immediately before remote IPC and 30-min intravenous infusion of 5-HD (5 mg/kg) during remote IPC did not affect the infarct-protective effect of remote IPC in LD muscle flaps. However, intravenous Glib or 5-HD, but not HMR 1098, given 24 h after remote IPC completely blocked the late infarct-protective effect of remote IPC in LD muscle flaps. None of these drug treatments affected the infarct size of control LD muscle flaps. The late phase of infarct protection was associated with a higher (P < 0.05) muscle content of ATP at the end of 4 h of ischemia and 1.5 h of reperfusion and a lower (P < 0.05) neutrophilic activity at the end of 1.5 h of reperfusion compared with the time-matched control. In conclusion, these findings support our hypothesis that hindlimb remote IPC induces an uninterrupted long (48 h) late phase of infarct protection, and sK(ATP) and mK(ATP) channels play a central role in the trigger and mediator mechanism, respectively.

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Year:  2005        PMID: 16179491     DOI: 10.1152/ajpregu.00395.2005

Source DB:  PubMed          Journal:  Am J Physiol Regul Integr Comp Physiol        ISSN: 0363-6119            Impact factor:   3.619


  12 in total

1.  K(ATP) channels process nucleotide signals in muscle thermogenic response.

Authors:  Santiago Reyes; Sungjo Park; Andre Terzic; Alexey E Alekseev
Journal:  Crit Rev Biochem Mol Biol       Date:  2010-10-07       Impact factor: 8.250

Review 2.  Muscle KATP channels: recent insights to energy sensing and myoprotection.

Authors:  Thomas P Flagg; Decha Enkvetchakul; Joseph C Koster; Colin G Nichols
Journal:  Physiol Rev       Date:  2010-07       Impact factor: 37.312

3.  Remote ischemic preconditioning confers late protection against myocardial ischemia-reperfusion injury in mice by upregulating interleukin-10.

Authors:  Zheqing P Cai; Nirmal Parajuli; Xiaoxu Zheng; Lewis Becker
Journal:  Basic Res Cardiol       Date:  2012-07-01       Impact factor: 17.165

4.  Effect of limited ischemia time on the amount and function of mitochondria within human skeletal muscle cells.

Authors:  A Jawhar; N Ponelies; L Schild
Journal:  Eur J Trauma Emerg Surg       Date:  2015-11-25       Impact factor: 3.693

Review 5.  Chronology of mitochondrial and cellular events during skeletal muscle ischemia-reperfusion.

Authors:  Stéphanie Paradis; Anne-Laure Charles; Alain Meyer; Anne Lejay; James W Scholey; Nabil Chakfé; Joffrey Zoll; Bernard Geny
Journal:  Am J Physiol Cell Physiol       Date:  2016-04-13       Impact factor: 4.249

6.  Remote ischemic conditioning: from bench to bedside.

Authors:  Shiang Yong Lim; Derek John Hausenloy
Journal:  Front Physiol       Date:  2012-02-20       Impact factor: 4.566

7.  Effect of remote ischemic preconditioning on hemostasis and fibrinolysis in head and neck cancer surgery: A randomized controlled trial.

Authors:  Andreas Engel Krag; Birgitte Jul Kiil; Christine Lodberg Hvas; Anne-Mette Hvas
Journal:  PLoS One       Date:  2019-07-08       Impact factor: 3.240

Review 8.  Remote ischaemic conditioning in the context of type 2 diabetes and neuropathy: the case for repeat application as a novel therapy for lower extremity ulceration.

Authors:  J A Epps; N A Smart
Journal:  Cardiovasc Diabetol       Date:  2016-09-09       Impact factor: 9.951

9.  Intermittent systemic hypoxic-hyperoxic training for myocardial protection in patients undergoing coronary artery bypass surgery: first results from a single-centre, randomised controlled trial.

Authors:  Denis S Tuter; Philippe Y Kopylov; Abram L Syrkin; Oleg S Glazachev; Roman N Komarov; Andrei I Katkov; Ljudmila P Severova; Ekaterina V Ivanova; Young Zhang; Hugo Saner
Journal:  Open Heart       Date:  2018-11-10

10.  Remote Ischemic Preconditioning in Microsurgical Head and Neck Reconstruction: A Randomized Controlled Trial.

Authors:  Andreas E Krag; Anne-Mette Hvas; Christine L Hvas; Birgitte J Kiil
Journal:  Plast Reconstr Surg Glob Open       Date:  2020-01-21
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