Effect of aortic curvature on bioprosthetic aortic valve performance

Transvalvular pressure gradient (ΔP) after aortic valve replacement is an important surrogate of aortic bioprostheses performance. Invasive ΔP is often measured after transcatheter aortic valve replacement to exclude patient-prosthetic mismatch. However, invasive aortic pressures are usually recorde...

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Veröffentlicht in:Journal of biomechanics 2023-01, Vol.146, p.111422-111422, Article 111422
Hauptverfasser: Vogl, Brennan, Gadhave, Rajat, Wang, Zhenyu, El Shaer, Ahmed, Chavez Ponce, Alejandra, Alkhouli, Mohamad, Hatoum, Hoda
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container_end_page 111422
container_issue
container_start_page 111422
container_title Journal of biomechanics
container_volume 146
creator Vogl, Brennan
Gadhave, Rajat
Wang, Zhenyu
El Shaer, Ahmed
Chavez Ponce, Alejandra
Alkhouli, Mohamad
Hatoum, Hoda
description Transvalvular pressure gradient (ΔP) after aortic valve replacement is an important surrogate of aortic bioprostheses performance. Invasive ΔP is often measured after transcatheter aortic valve replacement to exclude patient-prosthetic mismatch. However, invasive aortic pressures are usually recorded in the pressure recovery (PR) zone downstream of the valve, potentially resulting in ΔP underestimation compared to noninvasive measurements. PR was extensively studied in straight ascending aortas. However, the impact of various aortic arch configurations on ΔP has not been explored. PR was assessed in a pulse duplicating simulator at various cardiac conditions of cardiac output, heart rates and pressures. Three different aortic geometries with identical root dimensions but with different aortic arches were used: (1) curvature 1, (2) curvature 2, and (3) straight aortic models. Instantaneous pressure and peak ΔP measurements were recorded incrementally along the models for each cardiac condition. The models with aortic arches produced two distinct PR zones (after the valve and after the aortic arch), whereas the model without an aortic arch produced only one PR zone (after the valve). The trend of the pressure and ΔP curves for each model was independent of the cardiac condition used, but the individually measured pressure magnitudes did change with different conditions. In this study, we illustrated the differences in PR between distinct aortic curvatures and straight aorta. PR affects pressure and ΔP measurements. These effects are clear when recording aortic pressures by catheterization and echocardiography.
doi_str_mv 10.1016/j.jbiomech.2022.111422
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Invasive ΔP is often measured after transcatheter aortic valve replacement to exclude patient-prosthetic mismatch. However, invasive aortic pressures are usually recorded in the pressure recovery (PR) zone downstream of the valve, potentially resulting in ΔP underestimation compared to noninvasive measurements. PR was extensively studied in straight ascending aortas. However, the impact of various aortic arch configurations on ΔP has not been explored. PR was assessed in a pulse duplicating simulator at various cardiac conditions of cardiac output, heart rates and pressures. Three different aortic geometries with identical root dimensions but with different aortic arches were used: (1) curvature 1, (2) curvature 2, and (3) straight aortic models. Instantaneous pressure and peak ΔP measurements were recorded incrementally along the models for each cardiac condition. The models with aortic arches produced two distinct PR zones (after the valve and after the aortic arch), whereas the model without an aortic arch produced only one PR zone (after the valve). The trend of the pressure and ΔP curves for each model was independent of the cardiac condition used, but the individually measured pressure magnitudes did change with different conditions. In this study, we illustrated the differences in PR between distinct aortic curvatures and straight aorta. PR affects pressure and ΔP measurements. 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subjects Aorta
Aortic arch
Aortic curvature
Aortic valve
Aortic Valve - physiology
Aortic Valve Stenosis - surgery
Bioprosthetic valve
Cardiac Output
Coronary vessels
Curvature
Echocardiography
Heart
Heart rate
Heart Valve Prosthesis
Heart valves
Humans
Physiology
Pressure
Pressure gradient
Pressure recovery
Prostheses
Prosthesis Design
Transcatheter Aortic Valve Replacement
title Effect of aortic curvature on bioprosthetic aortic valve performance
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