Ex vivo biaxial load testing analysis of aortic biomechanics demonstrates variation in elastic energy distribution across the aortic zone zero - ScienceDirect

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Last updated 20 setembro 2024
Ex vivo biaxial load testing analysis of aortic biomechanics demonstrates  variation in elastic energy distribution across the aortic zone zero -  ScienceDirect
Ex vivo biaxial load testing analysis of aortic biomechanics demonstrates  variation in elastic energy distribution across the aortic zone zero -  ScienceDirect
Fluid–structure interaction modeling of compliant aortic valves using the lattice Boltzmann CFD and FEM methods
Ex vivo biaxial load testing analysis of aortic biomechanics demonstrates  variation in elastic energy distribution across the aortic zone zero -  ScienceDirect
2011 SSOE Statistical Summary by PITT SWANSON School of Engineering - Issuu
Ex vivo biaxial load testing analysis of aortic biomechanics demonstrates  variation in elastic energy distribution across the aortic zone zero -  ScienceDirect
Global Assessment of Stem Cell Engineering by Petit Institute for Bioengineering & Bioscience - Issuu
Ex vivo biaxial load testing analysis of aortic biomechanics demonstrates  variation in elastic energy distribution across the aortic zone zero -  ScienceDirect
Ex vivo biaxial load testing analysis of aortic biomechanics demonstrates variation in elastic energy distribution across the aortic zone zero - ScienceDirect
Ex vivo biaxial load testing analysis of aortic biomechanics demonstrates  variation in elastic energy distribution across the aortic zone zero -  ScienceDirect
Study of Effect of Boundary Conditions on Patient-Specific Aortic Hemodynamics
Ex vivo biaxial load testing analysis of aortic biomechanics demonstrates  variation in elastic energy distribution across the aortic zone zero -  ScienceDirect
Distal aortic biomechanics after transcatheter versus surgical aortic valve replacement: a hypothesis generating study, Journal of Cardiothoracic Surgery
Ex vivo biaxial load testing analysis of aortic biomechanics demonstrates  variation in elastic energy distribution across the aortic zone zero -  ScienceDirect
Fluid–structure interaction modeling of compliant aortic valves using the lattice Boltzmann CFD and FEM methods
Ex vivo biaxial load testing analysis of aortic biomechanics demonstrates  variation in elastic energy distribution across the aortic zone zero -  ScienceDirect
Computational evaluation of an extra-aortic elastic-wrap applied to simulated aging anisotropic human aorta models
Ex vivo biaxial load testing analysis of aortic biomechanics demonstrates  variation in elastic energy distribution across the aortic zone zero -  ScienceDirect
Ex vivo biaxial load testing analysis of aortic biomechanics demonstrates variation in elastic energy distribution across the aortic zone zero - ScienceDirect
Ex vivo biaxial load testing analysis of aortic biomechanics demonstrates  variation in elastic energy distribution across the aortic zone zero -  ScienceDirect
PDF) Biomechanical characterization of the passive response of the thoracic aorta in chronic hypoxic newborn lambs using an evolutionary strategy
Ex vivo biaxial load testing analysis of aortic biomechanics demonstrates  variation in elastic energy distribution across the aortic zone zero -  ScienceDirect
PDF) Full-field bulge test for planar anisotropic tissues: Part II – A thin shell method for determining material parameters and comparison of two distributed fiber modeling approaches
Ex vivo biaxial load testing analysis of aortic biomechanics demonstrates  variation in elastic energy distribution across the aortic zone zero -  ScienceDirect
Frontiers Structural Mechanisms in Soft Fibrous Tissues: A Review

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