Key result
Bidomain model provides essential mechanistic insights into cardiac pacing, defibrillation, and mechanotransduction.
Why the study?
There has been a clear need to establish mathematical models to complement experimental studies and provide a foundation for researchers new to cardiac modeling and interdisciplinary research.
This review provides a historical and forward-facing perspective on the bidomain model, highlighting its ongoing utility in understanding cardiac pacing, defibrillation, and mechanotransduction.
Does not warrant changes to clinical pacing or defibrillation practice; leaves open model-guided hypothesis generation for future trials.
Throughout the history of cardiac research, there has been a clear need to establish mathematical models to complement experimental studies. In an effort to create a more complete picture of cardiac phenomena, the bidomain model was established in the late 1970s to better understand pacing and defibrillation in the heart. This mathematical model has seen ongoing use in cardiac research, offering mechanistic insight that could not be obtained from experimental pursuits. Introduced from a historical perspective, the origins of the bidomain model are reviewed to provide a foundation for researchers new to the field and those conducting interdisciplinary research. The interplay of theory and experiment with the bidomain model is explored, and the contributions of this model to cardiac biophysics are critically evaluated. Also discussed is the mechanical bidomain model, which is employed to describe mechanotransduction. Current challenges and outstanding questions in the use of the bidomain model are addressed to give a forward-facing perspective of the model in future studies.
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Bradley J. Roth (2021) conducted a review in Cardiac biophysics and modeling. Bidomain model was evaluated. The bidomain model provides essential mechanistic insights into cardiac pacing, defibrillation, and mechanotransduction, complementing experimental studies in cardiac biophysics.
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