Arterial stiffness

Advancing the local Pulse Wave Velocity Measurement – Wave Confluence Decomposition using a Double Gaussian Propagation Model

Advancing the local Pulse Wave Velocity Measurement – Wave Confluence Decomposition using a Double Gaussian Propagation Model
Advancing the local Pulse Wave Velocity Measurement – Wave Confluence Decomposition using a Double Gaussian Propagation Model 786 444 IEEE Transactions on Biomedical Engineering (TBME)
The Double Gaussian Propagation Model advances waveform modeling to enable local pulse wave velocity measurements (clinical marker of arterial stiffness) by accounting for confluence of forward and reflected arterial waves. read more

Pulse Arrival Time Segmentation into Cardiac and Vascular Intervals – Implications for Pulse Wave Velocity and Blood Pressure Estimation
Author(s)3: Fabian Beutel, Chris Van Hoof, Xavier Rottenberg, Koen Reesink, Evelien Hermeling
Pulse Arrival Time Segmentation into Cardiac and Vascular Intervals – Implications for Pulse Wave Velocity and Blood Pressure Estimation 461 480 IEEE Transactions on Biomedical Engineering (TBME)
Pulse wave velocity (PWV) is a pressure-dependent marker of arterial stiffness, wherefore pulse arrival time (PAT) has been widely investigated for cuff-less blood pressure (BP) estimation. However, PAT is typically biased by a cardiac delay and peripheral vasculature. Therefore, we demonstrate an ultrasound-based method for central PAT segmentation into cardiac isovolumic contraction (IVC) and vascular pulse transit time (PTT). Contrasting peripheral PAT, central PTT-based PWV explained more than twice as much variability in the reference PWV and yielded significantly lower BP estimation errors. Thereby this unilateral arterial stiffness assessment bears the potential to improve cardiovascular risk assessment in clinical routines. read more
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