Cardiorespiratory coupling is influenced by body position and slow paced 0.1Hz breathing in a state specific manner

T. Bojić, Zoran Matić, M. Stojković, Mirjana M. Platiša, Aleksandar Kalauzi, M. Lazarevic, M. Moser
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引用次数: 2

Abstract

Cardiorespiratory coupling (CRC), a set of cardiac and respiratory rhythms that optimise the body oxygenation and the adaptability of the cardiorespiratory system to the external and internal environment, is represented in the linear domain by coefficient Qpr, the number of heartbeats per respiratory cycle (1, 2). Slow 0.1Hz breathing in supine position (Supin01) and active standing (Stand) represent the states of maximal RRI vagal and sympathetic modulation, respectively, in physiological quiescence; standing with 0.1Hz breathing (stand01) is characterized by qualitatively specific pattern of CRC(3). The aim of our work was to investigate the Qpr in 4 states: supine position with spontaneous breathing (supin), stand, supin01and stand01. Methods: The ECG (RRI) and respiration signals were simultaneously recorded in 20 healthy human subjects in four conditions. Data acquisition and processing was performed as in (3). Results: Parameter Supin (mean95%CI) Stand (mean95%CI) Supin01 (mean95%CI) Stand01 (mean95%CI) RRI [s] 0.980.13 0.720.10 1.060.13 0.750.09 sd RRI [s] 0.060.02 0.040.02 0.090.03 0.070.02 BBI [s] 4.681.53 4.581.80 9.850.71 9.950.20 sdBBI [s] 1.110.69 1.351.29 1.440.94 1.060.44 Qpr 4.811.67 6.392.43 9.411.20 13.481.66 sdQpr 1.140.67 1.931.73 1.390.71 1.540.53 Table 1. Mean value and 95%CI of RRI, BBI and Qpr for 20 healthy subjects in four physiological states: Supin-supine position with spontaneous breathing, Stand- standing with spontaneous breathing, Supin01-supine position with 0.1Hz breathing, Stand01-standing with slow 0.1Hz breathing. Parameter Supin-Stand Supin-Supin01 Supin-Stand01 Supin01-Stand01 RRI 0.000 0.0 04 0.000 0.000 sd RRI 0.0 04 0.00 0 0.351 0.0 10 BBI 0.391 0.000 0.000 0.313 sdBBI 0.232 0.433 0.911 0.135 Qpr 0.0 00 0.000 0.000 0.000 sdQpr 0.0 06 0.370 0.0 33 0.191 Table 2. Probability values ​​(p) of statistically significant differences between different physiological states. Wilcoxon test on a sample of 20 subjects. Color-indicated statistically significant changes in values ​​(p <0.05) whose changes were related and discussed. - increase of mean value, -decrease of mean value. Our results show that Qpr is state dependent and that it increases with the behavioral task complexity. Postural change tunes Qpr by RRI modulation, while 0.1Hz breathing dominantly by the increase of BBI. Stand01 is characterized by concomitant adjustment of both RRI and BBI. These data imply that Qpr regulation is "loosely" and selectively coordinated in stand and supin01("dual control") while integrated in stand01 ("unitary control"(4)). Analogously to nonlinear CRC(3), Qpr is probably operated by hierarchically higher diencephalo-telencephalic autonomic networks. References: 1. Moser M et al, Biol Rhythm Res 1995;26(1):100-111. 2. Scholkmann F et al, Front Physiol 2019;10:371. 3. Matić Z et al, Front Physiol 2020;11:24. 4. Feldman JL et al, Annu Rev Physiol 1988;50,593606.
在特定状态下,心肺耦合受体位和慢节奏0.1Hz呼吸的影响
心肺耦合(CRC)是一组优化身体氧合和心肺系统对外部和内部环境适应性的心脏和呼吸节律,在线性域中用系数Qpr表示,Qpr是每个呼吸周期的心跳次数(1,2)。仰卧位(Supin01)和主动站立(Stand)缓慢的0.1Hz呼吸分别代表最大RRI迷走神经和交感神经调节状态。在生理静止中;站立0.1Hz呼吸(stand01)是CRC的定性特异性模式(3)。我们的工作目的是研究4种状态下的Qpr:仰卧自主呼吸(supin)、站立、supin01和stand01。方法:对20例健康人在4种情况下同时记录心电图(RRI)和呼吸信号。数据采集和处理如(3)所示。结果:参数Supin (mean95%CI) Stand (mean95%CI) Supin01 (mean95%CI) Stand01 (mean95%CI) RRI [s] 0.980.13 0.720.10 1.060.13 0.70.09 sd RRI [s] 0.060.02 0.040.02 0.090.03 0.070.02 BBI [s] 4.681.53 4.581.80 9.850.71 9.950.20 sdBBI [s] 1.110.69 1.351.29 1.440.94 1.060.44 Qpr 4.811.67 6.392.43 9.411.20 13.481.66 sdQpr 1.140.67 1.931.73 1.390.71 1.540.53。20名健康受试者在仰卧位自主呼吸、站立-站立、仰卧位呼吸0.1Hz、站立-站立缓慢0.1Hz呼吸4种生理状态下的RRI、BBI和Qpr均值和95%CI。参数参数supin01 - stand supin01 - stand supin01 - stand RRI 0.000 0.0 04 0.000 0.000 sd RRI 0.0 04 0.000 0.351 0.0 10 BBI 0.391 0.000 0.000 0.313 sdBBI 0.232 0.433 0.911 0.135 Qpr 0.000 0.000 0.000 0.000 sdQpr 0.0 06 0.370 0.0 33 0.191表2。不同生理状态间差异有统计学意义的概率值(p)。对20名受试者进行了威尔考克森测试。颜色表示数值变化有统计学意义(p <0.05),其变化相关并进行讨论。-平均值增加,-平均值减少。结果表明,Qpr是状态依赖的,并且随着行为任务复杂度的增加而增加。体位变化通过RRI调节Qpr,而0.1Hz呼吸主要通过BBI增加调节。Stand01的特点是RRI和BBI同时调整。这些数据表明,Qpr调控在stand和supin01中是“松散”和选择性协调的(“双重控制”),而在stand01中是整合的(“单一控制”)(4)。类似于非线性CRC(3), Qpr可能是由层次更高的间脑-远脑自主神经网络操作的。引用:1。李建军,李建军,李建军,等。中国生物医学工程学报(英文版);2009;26(1):391 - 391。2. [j] .中国生物医学工程学报,2019;10(3):391 - 391。3.刘志强等,中国生物医学工程学报,2020;11(1):444 - 444。4. 李志强等,中国生物医学工程学报,1998;22(1):444 - 444。
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