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Study of arterial blood pressure by a Windkessel-type model: influence of arterial functional properties

Objective: to analyse the performance of a Windkessel blood pressure (BP) modeling of arterial compliance adjusted in a dynamic fashion according to a non-linear relationship between the arterial compliance (AC) and BP. Non invasive measurements of the radial BP waveform (MILLAR tonometry) were comp...

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Published in:Computer methods and programs in biomedicine 1999-07, Vol.60 (1), p.11-22
Main Authors: Diourté, Badié, Siché, Jean-Philippe, Comparat, Vincent, Baguet, Jean-Philippe, Mallion, Jean-Michel
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description Objective: to analyse the performance of a Windkessel blood pressure (BP) modeling of arterial compliance adjusted in a dynamic fashion according to a non-linear relationship between the arterial compliance (AC) and BP. Non invasive measurements of the radial BP waveform (MILLAR tonometry) were compared to those constructed by an electric simulator reproducing the model in a symmetrical network subdivided into 121 segments. We introduced at cardiac level the aortic stroke volume (Doppler echocardiography) and the dynamic values of compliance (relation of compliance-to pressure, constant or variable) whether the model was linear or non linear, measured by high resolution Doppler (NIUS 02) for each subject. Results: at the radial artery segment the modelled BP obtained by the non linear model of AC was not significantly different from the measured BP wave, while in the linear model (AC constant at mean BP level) the systolic BP was significantly underestimated. (* P
doi_str_mv 10.1016/S0169-2607(99)00002-4
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subjects Arterial properties
Biological and medical sciences
Blood pressure
Blood Pressure - physiology
Blood vessels
Computer Simulation
Doppler effect
Echocardiography
Fundamental and applied biological sciences. Psychology
Hemodynamics. Rheology
Humans
Medical Physics
Models, Cardiovascular
Noninvasive medical procedures
Physics
Physiological models
Pressure
Pressure measurement
Simulation
Vertebrates: cardiovascular system
Windkessel
title Study of arterial blood pressure by a Windkessel-type model: influence of arterial functional properties
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