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首页> 外文期刊>Cardiovascular engineering and technology >Kinematic Modeling Based Decomposition of Transmitral Flow (Doppler E-Wave) Deceleration Time into Stiffness and Relaxation Components
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Kinematic Modeling Based Decomposition of Transmitral Flow (Doppler E-Wave) Deceleration Time into Stiffness and Relaxation Components

机译:基于运动学模型的透射流(多普勒电子波)减速时间分解为刚度和松弛分量

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摘要

The mechanical suction-pump feature of the left ventricle aspirates atrial blood and generates a rapid rise and fall in transmitral flow (Doppler E-wave). Initially, E-wave deceleration time (DT), a routine index of clinical diastolic function, was thought to be determined only by chamber stiffness. Kinematic modeling of filling, in analogy to damped oscillatory motion [Parametrized Diastolic Filling (PDF) formalism], has been extensively validated and accurately predicts clinically observed E-wave contours while, revealing that DT is actually an algebraic function of both stiffness (PDF parameter k) and relaxation (PDF parameter c).
机译:左心室的机械吸引泵功能可吸入心房血,并产生快速的上升和下降流量(多普勒E波)。最初,电波减速时间(DT)是临床舒张功能的常规指标,被认为仅由腔室硬度决定。与阻尼振荡运动类似的填充运动学模型[参数化舒张压填充(PDF)形式主义]已得到广泛验证,并可以准确预测临床观察到的E波轮廓,同时揭示DT实际上是两个刚度的代数函数(PDF参数k)和松弛(PDF参数c)。

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