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Creators/Authors contains: "Linte, Cristian A."

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  1. Free, publicly-accessible full text available June 16, 2025
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  5. Bernard, O. ; Clarysse, P. ; Duchateau, N. ; Ohayon, J. ; Viallon, M. (Ed.)
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  6. Išgum, Ivana ; Colliot, Olivier (Ed.)
  7. Bottenus, Nick ; Boehm, Christian (Ed.)
  8. Faithful, accurate, and successful cardiac biomechanics and electrophysiological simulations require patient-specific geometric models of the heart. Since the cardiac geometry consists of highly-curved boundaries, the use of high-order meshes with curved elements would ensure that the various curves and features present in the cardiac geometry are well-captured and preserved in the corresponding mesh. Most other existing mesh generation techniques require computer-aided design files to represent the geometric boundary, which are often not available for biomedical applications. Unlike such methods, our technique takes a high-order surface mesh, generated from patient medical images, as input and generates a high-order volume mesh directly from the curved surface mesh. In this paper, we use our direct high-order curvilinear tetrahedral mesh generation method [1] to generate several second-order cardiac meshes. Our meshes include the left ventricle myocardia of a healthy heart and hearts with dilated and hypertrophic cardiomyopathy. We show that our high-order cardiac meshes do not contain inverted elements and are of sufficiently high quality for use in cardiac finite element simulations. 
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