An in-silico benchmark for the tricuspid heart valve – Geometry, finite element mesh, Abaqus simulation, and result data set
Laurence, Devin W.
Johnson, Emily L.
Is Version Of
This article provides Abaqus input files and user subroutines for performing finite element simulations of the tricuspid heart valve with an idealized geometry. Additional post-processing steps to obtain a ParaView visualization file (*.vtk) of the deformed geometry are also provided to allow the readers to use the included ParaView state file (*.pvsm) for customizable visualization and evaluation of the simulation results. We expect this first-of-its-kind in-silico benchmark dataset will facilitate user-friendly simulations considering material nonlinearity, leaflet-to-leaflet contact, and large deformations. Additionally, the information included herein can be used to rapidly evaluate other novel in-silico approaches developed for simulating cardiac valve function. The benchmark can be expanded to consider more complex features of the tricuspid valve function, such as the dynamic annulus motion or the time-varying transvalvular pressure. Interested readers are referred to the companion article (Johnson et al., 2021) for an example application of this in-silico tool for isogeometric analysis of tricuspid valves.
This article is published as Laurence, Devin W., Chung-Hao Lee, Emily L. Johnson, and Ming-Chen Hsu. "An in-silico benchmark for the tricuspid heart valve–Geometry, finite element mesh, Abaqus simulation, and result data set." Data in Brief (2021): 107664. DOI: 10.1016/j.dib.2021.107664. Copyright 2021 The Authors. Attribution 4.0 International (CC BY 4.0). Posted with permission.
Tricuspid valve, Finite element simulations, In-Silico benchmark, Leaflet-to-leaflet contact, Material nonlinearity