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A Parametric Study of Flushing Conditions for Improvement of Angioscopy Visibility

During an angioscopy operation, a transparent liquid called dextran is sprayed out from a catheter to flush the blood away from the space between the camera and target. Medical doctors usually inject dextran at a constant flow rate. However, they often cannot obtain clear angioscopy visibility becau...

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Published in:Journal of functional biomaterials 2022-06, Vol.13 (2), p.69
Main Authors: Mitsuzuka, Kohei, Li, Yujie, Nakayama, Toshio, Anzai, Hitomi, Goanno, Daisuke, Tupin, Simon, Zhang, Mingzi, Wang, Haoran, Horie, Kazunori, Ohta, Makoto
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container_title Journal of functional biomaterials
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creator Mitsuzuka, Kohei
Li, Yujie
Nakayama, Toshio
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Tupin, Simon
Zhang, Mingzi
Wang, Haoran
Horie, Kazunori
Ohta, Makoto
description During an angioscopy operation, a transparent liquid called dextran is sprayed out from a catheter to flush the blood away from the space between the camera and target. Medical doctors usually inject dextran at a constant flow rate. However, they often cannot obtain clear angioscopy visibility because the flushing out of the blood is insufficient. Good flushing conditions producing clear angioscopy visibility will increase the rate of success of angioscopy operations. This study aimed to determine a way to improve the clarity for angioscopy under different values for the parameters of the injection waveform, endoscope position, and catheter angle. We also determined the effect of a stepwise waveform for injecting the dextran only during systole while synchronizing the waveform to the cardiac cycle. To evaluate the visibility of the blood-vessel walls, we performed a computational fluid dynamics (CFD) simulation and calculated the visible area ratio (VAR), representing the ratio of the visible wall area to the total area of the wall at each point in time. Additionally, the normalized integration of the VAR called the area ratio (ARVAR) represents the ratio of the visible wall area as a function of the dextran injection period. The results demonstrate that the ARVAR with a stepped waveform, bottom endoscope, and three-degree-angle catheter results in the highest visibility, around 25 times larger than that under the control conditions: a constant waveform, a center endoscope, and 0 degrees. This set of conditions can improve angioscopy visibility.
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Medical doctors usually inject dextran at a constant flow rate. However, they often cannot obtain clear angioscopy visibility because the flushing out of the blood is insufficient. Good flushing conditions producing clear angioscopy visibility will increase the rate of success of angioscopy operations. This study aimed to determine a way to improve the clarity for angioscopy under different values for the parameters of the injection waveform, endoscope position, and catheter angle. We also determined the effect of a stepwise waveform for injecting the dextran only during systole while synchronizing the waveform to the cardiac cycle. To evaluate the visibility of the blood-vessel walls, we performed a computational fluid dynamics (CFD) simulation and calculated the visible area ratio (VAR), representing the ratio of the visible wall area to the total area of the wall at each point in time. Additionally, the normalized integration of the VAR called the area ratio (ARVAR) represents the ratio of the visible wall area as a function of the dextran injection period. The results demonstrate that the ARVAR with a stepped waveform, bottom endoscope, and three-degree-angle catheter results in the highest visibility, around 25 times larger than that under the control conditions: a constant waveform, a center endoscope, and 0 degrees. This set of conditions can improve angioscopy visibility.</abstract><cop>Basel</cop><pub>MDPI AG</pub><pmid>35735924</pmid><doi>10.3390/jfb13020069</doi><orcidid>https://orcid.org/0000-0002-0118-1160</orcidid><orcidid>https://orcid.org/0000-0001-8571-6400</orcidid><orcidid>https://orcid.org/0000-0003-0982-8210</orcidid><orcidid>https://orcid.org/0000-0001-6597-7769</orcidid><oa>free_for_read</oa></addata></record>
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subjects Angina pectoris
Blood
Blood clots
Blood vessels
Cameras
Catheters
CFD
Computational fluid dynamics
Computer applications
coronary angioscopy
Coronary vessels
Dextran
dextran injection
Dextrans
Endoscopes
Finite volume method
Flow velocity
Fluid dynamics
flush conditions
Flushing
Hydrodynamics
Injection
Medical instruments
Parametric statistics
Physicians
Synchronism
Systole
two-phase flow
Veins & arteries
Viscosity
Waveforms
title A Parametric Study of Flushing Conditions for Improvement of Angioscopy Visibility
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