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Analysis of blood flow in one dimensional elastic artery using Navier-Stokes conservation laws

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arxiv 1710.06258 v2 pith:2CQS5KJE submitted 2017-10-15 physics.flu-dyn

classification physics.flu-dyn
keywords willactuallybeforebloodcomputerdimensionalelasticflow
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In the last years, medical computer simulation has seen a great growth in several scientific branches, from modelling to numerical methods, going through computer science. The main goals of this incipient discipline are testing hypotheses before an intervention, or see what effect could have a drug in the system before actually taking it, among others. In this work we deduce from the most basic physical principles a one dimensional model for the simulation of blood flow in elastic arteries. We will provide some historical background, as well as a brief state of the art of these models. We will also study from a calculus point of view the equations of the model obtained, achieving an original result for the formation of shock waves in compliant vessels. Afterwards we will make some numerical simulations using Galerkin Discontinuous Finite Element Method. Since this is actually a family of methods, we will motivate and detail the elections and the implementation strategies.

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  1. Accelerated Patient-Specific Calibration via Differentiable Hemodynamics Simulations

    physics.med-ph 2024-12 conditional novelty 4.0 of 10

    A differentiable 1D hemodynamics solver in JAX enables gradient-based inference of Windkessel parameters from pressure waveforms.

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