Regional cooling is proposed to control spiral or reentrant wave dynamics in cardiac tissue by creating a transient inhomogeneity in electrophysiological properties. The paper frames this as an in silico arrhythmia-control approach.
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regional cooling
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low (nonfreezing) temperatures
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The paper presents an in silico approach to control cardiac arrhythmias using low nonfreezing temperatures.
Quoted textsource-backed
In this letter, I present an innovative approach to control cardiac arrhythmias using low (nonfreezing) temperatures.
The proposed cooling-based arrhythmia-control approach differs from prior established techniques by avoiding drugs, genetic modification, foreign-body injection, voltage shocks, and curative heart damage.
Quoted textsource-backed
This approach differs from all previous established techniques in that it involves no drugs, no genetic modification, no injection of foreign bodies, no application of voltage shocks (high or low, single or pulsed), and no curative damage to the heart.
Regional cooling of cardiac tissue creates a transient electrophysiological inhomogeneity that can be manipulated to control reentrant wave dynamics.
Quoted textsource-backed
It relies on regional cooling of cardiac tissue to create a transient inhomogeneity in the electrophysiological properties. This inhomogeneity can then be manipulated to control the dynamics of the reentrant waves.
The author positions the cooling-based method as the most sustainable theoretical proposal for clinical treatment of cardiac arrhythmias.
Quoted textsource-backed
This approach is, to my knowledge, the most sustainable theoretical proposal for the treatment of cardiac arrhythmias in the clinic.