人体呼吸系统稳定性分析

Tanmay Pal, Karan Jain, S. Maka
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引用次数: 1

摘要

人体呼吸系统的化学调控是一个复杂的动力系统。这个系统的主要功能是调节血液中的气体浓度。用非线性时滞微分方程对其进行建模。文献中有几种呼吸调节的动力学模型,大致分为综合模型和最小模型。最小模型是在综合模型的基础上,在一定的假设条件下推导出来的,并进行线性化处理以简化分析。目前的文献在这些数学建模方法是针对描述病理条件,给小推力的预测。由于这些系统的时间延迟是可变的,所以分析起来并不简单。从系统的角度来看,增加延迟会使系统振荡。生理上,延迟取决于血流量。在该模型中,肺泡氧和二氧化碳分压反馈回路的延迟使系统振荡,对受试者造成不适或致命。本文的分析是为了找出系统运行舒适的延时范围。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Stability analysis of Human Respiratory System
Chemical Regulation of Human Respiratory System is a complex dynamical system. Primary function of this system is to regulate gas concentrations in the Blood. It is modeled by Nonlinear Delay Differential Equations. Several dynamical models for respiratory regulation are available in the literature, which are broadly classified as Comprehensive and Minimal Models. Minimal models are derived from the comprehensive models with some assumptions and are linearized for simplified analysis. Current literatures in these mathematical modeling approaches are directed towards describing pathological conditions, giving little thrust for the prediction. Analyses of these systems are not straightforward because of the variable time delay. From the system's point of view, increasing delay makes the system oscillatory. Physiologically, delay depends on the blood flow. In this model, delay in feedback loop of alveolar oxygen and carbon dioxide partial pressures make the system oscillatory, causing discomfort or fatal to the subject. Present analysis is motivated to find out the range of delay for comfortable operation of the system.
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