Wave intensity analysis and the development of the reservoir–wave approach

被引:0
|
作者
John V. Tyberg
Justin E. Davies
Zhibin Wang
William A. Whitelaw
Jacqueline A. Flewitt
Nigel G. Shrive
Darryl P. Francis
Alun D. Hughes
Kim H. Parker
Jiun-Jr Wang
机构
[1] University of Calgary,Departments of Cardiac Sciences and Physiology & Pharmacology
[2] International Centre for Circulatory Health,Imperial College Healthcare NHS Trust
[3] St Mary’s Hospital Campus,Department of Medicine (Emeritus Professor)
[4] Qingdao University Medical College Hospital,Stephanson Cardiovascular MR Centre
[5] University of Calgary,Department of Civil Engineering
[6] University of Calgary,Physiological Flow Unit, Department of Bioengineering
[7] University of Calgary,undefined
[8] Imperial College,undefined
来源
Medical & Biological Engineering & Computing | 2009年 / 47卷
关键词
Pressure; Windkessel; Aorta; Wave intensity analysis; Frank; Reservoir; Wave;
D O I
暂无
中图分类号
学科分类号
摘要
The parameters of wave intensity analysis are calculated from incremental changes in pressure and velocity. While it is clear that forward- and backward-traveling waves induce incremental changes in pressure, not all incremental changes in pressure are due to waves; changes in pressure may also be due to changes in the volume of a compliant structure. When the left ventricular ejects blood rapidly into the aorta, aortic pressure increases, in part, because of the increase in aortic volume: aortic inflow is momentarily greater than aortic outflow. Therefore, to properly quantify the effects of forward or backward waves on arterial pressure and velocity (flow), the component of the incremental change in arterial pressure that is due only to this increase in arterial volume—and not, fundamentally, due to waves—first must be excluded. This component is the pressure generated by the filling and emptying of the reservoir, Otto Frank’s Windkessel.
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页码:221 / 232
页数:11
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