bioRxivSynthetic BiologyPreprint
Thermogenetics for cardiac pacing
Alexander V. BalatskiyiD, Alexey M. NesterenkoiD, Vera S. OvechkinaiD, Ланин Александр АлександровичiD, David JappyiD, Rostislav A. SokoloviD, Vitalii D. DzhabrailoviD, Elena A. TurchaninovaiD, Mihail M. SlotvitskyiD, Elena S. FetisovaiD, Alexander A. MoshchenkoiD, Sofya K. AndrianovaiD, Ruslan M. KarpoviD, Semyon S. SabininiD, Diana Biglova, Andrey V. ZakharoviD, Georgy M. SoliusiD, Ekaterina M. SolyusiD, Sergei V. KoroleviD, Oleg V. PodgornyiD, Valeriya A. TsvelayaiD, Konstantin I. AgladzeiD, Ilya V. KelmansoniD, Andrei B. FedotoviD, Andrei V. RozoviD, , Vsevolod Vadimovich BelousoviD
Abstract
Cardiac arrhythmias are common disorders that can be fatal. Modern methods of treating bradyarrhythmias include the implantation of pacemakers and cardioverter-defibrillators. However, implantable devices can cause various complications related to the electrodes installed inside the heart, including infection. Less invasive heart rhythm modulation could be beneficial for some cohorts of patients. Here, we demonstrate an alternative approach to heart pacing based on thermogenetics. We used adeno-associated viruses to deliver genetic human transient receptor potential subfamily V member 1 (TRPV1), a heat-sensitive cation channel, into isolated cardiomyocytes and the mouse heart. This allowed us to induce action potentials and control contractility using short heat pulses delivered by infrared laser illumination. Using this approach, we demonstrated the thermogenetic pacing of isolated cardiomyocytes in vitro and in the mouse heart in vivo. Our results demonstrate the potential of thermogenetics for developing therapeutic strategies for heart rhythm modulation.
- Citations
- 4
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- Sonogenetic control of cardiomyocytes and cardiac pacing using exogenous Transient Receptor Potential A1 channels
Lei Zhang, Jing Zhang, … James Friend·bioRxiv·Jan 26, 2026
- Inhibition of Tgfβ signaling enables durable ventricular pacing by TBX18 gene transfer
- Human-engineered heart tissues recapitulate tissue-scale mechanisms underlying ventricular tachycardia
Matthew J. Fiedler, Alejandra Vásquez‐Limeta, … Francisco J Altamirano·Advanced SciencePeer-reviewed·Oct 26, 2026
- Optical control of cardiac rhythm by in vivo photoactivation of an ERG channel peptide inhibitor
J. Montnach, H. Millet, … M. De Waard·bioRxiv·Mar 23, 2023
- Cellular Heterogeneity of Pluripotent Stem Cell Derived Cardiomyocyte Grafts is Mechanistically Linked to Treatable Arrhythmias
D. Selvakumar, Z. E. Clayton, … J. J. H. Chong·bioRxiv·Sep 15, 2022
- Thermoplasmonic modulation of cardiomyocytes activity with local temperature read-out