Key result
Review outlines progress in cardiac multiphysics modeling integrating structure, electrophysiology, mechanics, and hemodynamics.
Why the study?
Development of cardiac multiphysics models has progressed significantly over the decades, making simulations combining multiple physics interactions increasingly common.
This review outlines the state-of-the-art in multiphysics computational modeling of the cardiac ventricles, including patient-specific implementations and future directions.
Development of cardiac multiphysics models has progressed significantly over the decades and simulations combining multiple physics interactions have become increasingly common. In this review, we summarise the progress in this field focusing on various approaches of integrating ventricular structures. electrophysiological properties, myocardial mechanics, as well as incorporating blood hemodynamics and the circulatory system. Common coupling approaches are discussed and compared, including the advantages and shortcomings of each. Currently used strategies for patient-specific implementations are highlighted and potential future improvements considered.
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Bakir et al. (2021) conducted a review in Cardiac multiphysics modelling. Multiphysics computational modelling was evaluated. This review summarizes progress in cardiac multiphysics modeling, focusing on integrating ventricular structures, electrophysiology, myocardial mechanics, and hemodynamics.
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