Сравнение методов

	Модель Виндкесселя	Гемодинамика с использованием вычислительной гидродинамики (CFD)	Вариабельность сердечного ритма	Фотоплетизмография
Область	Биомеханика	Биомеханика	Биомеханика	Биомеханика
Семейство	Process / pipeline	Process / pipeline	Process / pipeline	Process / pipeline
Год появления	1969	2002	1996	1937
Автор метода	Nikolaos Westerhof	David Steinman	Task Force of European Society of Cardiology	Hertzman
Тип	Physiological lumped-parameter modeling	Multi-physics finite element simulation	Time-series and frequency-domain analysis pipeline	Optical signal acquisition and analysis pipeline
Основополагающий источник	Westerhof, N., Bosman, F., De Vries, N. C., & Noordergraaf, A. (1969). Analog studies of the human systemic arterial tree. Journal of Biomechanics, 2(2), 121-143.	Steinman, D. A., Vinh, B., Ethier, C. R., Ojha, M., Cobbold, R. S., & Johnston, K. W. (2002). A numerical simulation of flow in a two-dimensional end-to-side anastomosis model. Journal of Biomechanical Engineering, 115(1), 112-118.	Task Force of the European Society of Cardiology and the North American Society of Pacing and Electrophysiology. (1996). Heart rate variability: standards of measurement, physiological interpretation, and clinical use. Circulation, 93(5), 1043-1065.	Allen, J. (2007). Photoplethysmography and its application in clinical physiology. Physiology & Behavior, 107(4), 540-548.
Другие названия	Elastic chamber model, Arterial compliance model, Lumped parameter model	Cardiovascular CFD, Blood flow simulation, Hemodynamic simulation	HRV, RR interval analysis, Cardiac variability	PPG, Pulse oximetry, Reflectance photometry
Связанные	3	3	3	3
Сводка	The Windkessel model is a lumped-parameter representation of the arterial system that captures the pulsatile dynamics of blood flow and pressure using simple mechanical analogs (resistors and capacitors). Named after the German word for air chamber, it was formalized by Westerhof and colleagues in the late 1960s and remains fundamental to understanding arterial hemodynamics and blood pressure regulation.	Computational fluid dynamics (CFD) for hemodynamics solves the Navier-Stokes equations to simulate blood flow in realistic vascular geometries. Pioneered by researchers such as David Steinman, CFD hemodynamics reveals complex flow patterns, wall shear stress distributions, and hemodynamic factors implicated in atherosclerosis, aneurysm rupture, and device-induced thrombosis.	Heart rate variability (HRV) analysis quantifies the variation in time intervals between consecutive heartbeats as a window into autonomic nervous system function and cardiovascular health. Formalized by the European Society of Cardiology Task Force in 1996, HRV metrics are now standard in cardiology, physiology, and sports science for assessing stress, recovery, and disease risk.	Photoplethysmography (PPG) measures blood volume changes in tissue using light absorption, providing a non-invasive optical window into cardiovascular dynamics. Originally developed by Hertzman in 1937, PPG is now ubiquitous in pulse oximetry, smartwatches, and research applications for monitoring heart rate, blood oxygenation, and vascular function.