Dynamical mechanism for subcellular alternans in cardiac myocytes.

Dynamical mechanism for subcellular alternans in cardiac myocytes.

RATIONALE: Cardiac repolarization alternans is an arrhythmogenic rhythm disturbance, manifested in individual myocytes as a beat-to-beat alternation of action potential durations and intracellular calcium transient magnitudes. Recent experimental studies have reported "subcellular alternans,&qu...

Bibliografske podrobnosti
Main Authors:	Gaeta, SA, Bub, G, Abbott, G, Christini, D
Format:	Journal article
Jezik:	English
Izdano:	2009

Podobne knjige/članki

Nonlinear dynamics of cardiac alternans: subcellular to tissue level mechanisms of arrhythmia
od: Stephen eGaeta, et al.
Izdano: (2012-05-01)

Prediction of the mechanical response of cardiac alternans by using an electromechanical model of human ventricular myocytes
od: Jun Ik Park, et al.
Izdano: (2019-06-01)

Role of Mitochondrial ROS for Calcium Alternans in Atrial Myocytes
od: Yuriana Oropeza-Almazán, et al.
Izdano: (2024-01-01)

Modelling cardiac alternans
od: Hinch, R, et al.
Izdano: (2001)

Modulation of cardiac alternans by altered sarcoplasmic reticulum calcium release: A simulation study
od: Tomek, J, et al.
Izdano: (2018)

Discordant Calcium Transient and Action Potential Alternans in a Canine Left-Ventricular Myocyte
od: Armoundas, Antonis A.
Izdano: (2010)

Cardiac Alternans: Mechanisms and Clinical Utility in Arrhythmia Prevention
od: Kanchan Kulkarni, et al.
Izdano: (2019-11-01)

Relating cardiac electrical and mechanical alternans to ventricular stability
od: Clancy, Edward Arthur
Izdano: (2012)

Modulation of Cardiac Alternans by Altered Sarcoplasmic Reticulum Calcium Release: A Simulation Study
od: Jakub Tomek, et al.
Izdano: (2018-09-01)

Mitochondrial depolarization promotes calcium alternans: Mechanistic insights from a ventricular myocyte model.
od: Vikas Pandey, et al.
Izdano: (2021-01-01)

The role of mitochondria for the regulation of cardiac alternans
od: Stela M Florea, et al.
Izdano: (2010-11-01)

T-wave Alternans and Arrhythmogenesis in Cardiac Diseases
od: Zhilin eQu, et al.
Izdano: (2010-11-01)

Electrical alternans vs. pseudoelectrical alternans
od: Marc Mugmon
Izdano: (2012-04-01)

Cardiac Alternans Occurs through the Synergy of Voltage- and Calcium-Dependent Mechanisms
od: Minh Tuan Hoang-Trong, et al.
Izdano: (2021-10-01)

Prominent J-wave and T-wave alternans associated with mechanical alternans in a patient with takotsubo cardiomyopathy
od: Rintaro Hojo, MD, et al.
Izdano: (2015-02-01)

A master stability function approach to cardiac alternans
od: Yi Ming Lai, et al.
Izdano: (2019-10-01)

Alternans in atria: Mechanisms and clinical relevance
od: Giedrius Kanaporis, et al.
Izdano: (2017-01-01)

Electrical Alternans
od: Yoga Yuniadi
Izdano: (2015-03-01)

β-Adrenergic receptor stimulation inhibits proarrhythmic alternans in postinfarction border zone cardiomyocytes: a computational analysis
od: Tomek, J, et al.
Izdano: (2017)

Contrasting effects of ischemia on the kinetics of membrane voltage and intracellular calcium transient underlie electrical alternans.
od: Lakireddy, V, et al.
Izdano: (2005)

Biventricular Pulsus Alternans
od: Param Vidwan, et al.
Izdano: (2009-01-01)

T-wave alternans patterns during sleep in healthy, cardiac disease, and sleep apnea patients.
od: Nemati, S, et al.
Izdano: (2011)

Mechanism of carvedilol induced action potential and calcium alternans
od: Elizabeth Martinez-Hernandez, et al.
Izdano: (2022-12-01)

Electrophysiological Mechanisms Underlying T-Wave Alternans and Their Role in Arrhythmogenesis
od: Tingting You, et al.
Izdano: (2021-03-01)

Effects of pacing site and stimulation history on alternans dynamics and the development of complex spatiotemporal patterns in cardiac tissue
od: Alessio eGizzi, et al.
Izdano: (2013-04-01)

Population of human ventricular cell models calibrated with in vivo measurements unravels ionic mechanisms of cardiac alternans
od: Zhou, X, et al.
Izdano: (2013)

Population of human ventricular cell models calibrated with in vivo measurements unravels ionic mechanisms of cardiac alternans
od: Zhou, X, et al.
Izdano: (2015)

Mitochondrial dysfunction, alternans and arrhythmias
od: Miguel A Aon
Izdano: (2013-04-01)

Pulsus alternans: Real and pseudo
od: Monish S Raut, et al.
Izdano: (2014-01-01)

The calcium transient coupled to the L-type calcium current attenuates cardiac alternans
od: Mark Warren, et al.
Izdano: (2024-09-01)

Frequency-dependent signaling in cardiac myocytes
od: Payam Haftbaradaran Esfahani, et al.
Izdano: (2022-09-01)

Nanomaterials for Cardiac Myocyte Tissue Engineering
od: Rodolfo Amezcua, et al.
Izdano: (2016-07-01)

Acidosis in models of cardiac ventricular myocytes
od: Crampin, E, et al.
Izdano: (2006)

Native mechano-regulative matrix properties stabilize alternans dynamics and reduce spiral wave stabilization in cardiac tissue
od: Julia Erhardt, et al.
Izdano: (2024-09-01)

Caveolae in rabbit ventricular myocytes: distribution and dynamic diminution after cell isolation
od: Burton, RB, et al.
Izdano: (2017)

Transcriptional Reversion of Cardiac Myocyte Fate During Mammalian Cardiac Regeneration
od: O'Meara, C. C., et al.
Izdano: (2018)

Discordant Alternans as a Mechanism for Initiation of Ventricular Fibrillation In Vitro
od: Laura M. Muñoz, et al.
Izdano: (2018-09-01)

Calcium and IP3 dynamics in cardiac myocytes: Experimental and computational perspectives and approaches
od: Felix eHohendanner, et al.
Izdano: (2014-03-01)

β-Adrenergic receptor stimulation and alternans in the border zone of a healed infarct: an ex vivo study and computational investigation of arrhythmogenesis
od: Tomek, J, et al.
Izdano: (2019)

Correlation between T-Wave Alternans and Cardiac Volume Status via Intrathoracic Impedance Measurements
od: Jose' Dizon, et al.
Izdano: (2012-01-01)