Key result
Simplified 2D bidomain whole-heart model realistically reproduces WPW syndrome ECG and electrical activation sequences.
A simplified 2D computational heart model using the bidomain approach can realistically simulate the electrophysiology and ECG changes of Wolff-Parkinson-White Syndrome.
: The enormous progress made in computational cardiac electrophysiology during the past decades has resulted in a diverse range of models and numerical methods. In general, researchers have elaborated highly complex and detailed simulators on the cell and tissue level. In contrast, there has been a lack of simplified whole-heart models that study specific heart arrhythmias. In this study, we approximate the electrophysiology of Wolff-Parkinson-White Syndrome with such a model. In order to reproduce the cardiac anomaly, we apply the so-called bidomain approach involving partial differential equations. Results show that the simulations are realistic, both in ECG generation and electric activation sequence. Our assessment of the model implementation takes into account parameter and geometry variation, which supports a realistic view of medical aspects. Our in silico analysis thus helps provide clear insights into the mechanisms of arrhythmias and associated ECG changes.
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Zeile et al. (2016) studied Wolff-Parkinson-White Syndrome. Simplified 2D whole-heart model using bidomain approach was evaluated on ECG generation and electric activation sequence. A simplified 2D whole-heart model using the bidomain approach realistically reproduced the cardiac anomaly of Wolff-Parkinson-White Syndrome in both ECG generation and electric activation sequence.
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