仿生机电胸壁模拟器的研制,用于评估光电胸壁容积描记仪的性能。

Q3 Medicine
Open Biomedical Engineering Journal Pub Date : 2014-12-19 eCollection Date: 2014-01-01 DOI:10.2174/1874120701408010120
Massaroni C, Schena E, Bastianini F, Scorza A, Saccomandi P, Lupi G, Botta F, Sciuto S A, Silvestri S
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引用次数: 6

摘要

基于光电系统的仪器步态分析是一种昂贵的技术,用于客观测量人体运动特征,通常被认为是金标准。光电容积描记(OEP)是一种特殊的运动分析系统,能够:(i)通过评估放置在胸腔上的标记位移来确定胸壁的运动学;(ii)计算呼吸时的呼吸量。这项工作的目的是描述一个定制的,仿生的,机电胸壁模拟器(CWS)的性能,专门设计用于评估OEP系统的计量性能。模拟器的设计是基于先前确定的三个健康受试者的胸壁运动学分析。我们进行了两组实验:(i)研究不同目标位移(1 - 12 mm)下CWS的动态响应,(ii)评估CWS模拟完全呼吸的准确性和精度,涵盖呼吸频率和潮气量的生理范围。结果表明,CWS可以模拟呼吸频率高达~ 60 bpm。实际位移与设定值的差值始终小于9 μm。以测量不确定度与实际位移之比表示的精度误差小于0.32%。观察到的良好性能允许考虑CWS原型在定期验证例程中用于评估OEP系统性能的可行性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Development of a bio-inspired mechatronic chest wall simulator for evaluating the performances of opto-electronic plethysmography.

Development of a bio-inspired mechatronic chest wall simulator for evaluating the performances of opto-electronic plethysmography.

Development of a bio-inspired mechatronic chest wall simulator for evaluating the performances of opto-electronic plethysmography.

Development of a bio-inspired mechatronic chest wall simulator for evaluating the performances of opto-electronic plethysmography.

Instrumented gait analysis based on optoelectronic systems is an expensive technique used to objectively measure the human movement features and it is generally considered as the gold standard. Opto-electronic plethysmography (OEP) is a particular motion analysis system able to: (i) determine chest wall kinematic via the evaluation of marker displacements placed on the thorax and (ii) compute respiratory volumes during breathing. The aim of this work is to describe the performances of a custom made, bio-inspired, mechatronic chest wall simulator (CWS), specifically designed to assess the metrological performances of the OEP system. The design of the simulator is based on the chest wall kinematic analysis of three healthy subjects previously determined. Two sets of experiments were carried out: (i) to investigate the CWS dynamic response using different target displacements (1 - 12 mm), and (ii) to assess the CWS accuracy and precision in simulating quite breathing, covering the physiological range of respiratory frequency and tidal volume. Results show that the CWS allows simulating respiratory frequency up to ~ 60 bpm. The difference between the actual displacement and the set one is always < 9 μm. The precision error, expressed as the ratio between measurement uncertainty and the actual displacement, is lower than 0.32 %. The observed good performances permit to consider the CWS prototype feasible to be employed for assessing the performances of OEP system in periodical validation routines.

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来源期刊
Open Biomedical Engineering Journal
Open Biomedical Engineering Journal Medicine-Medicine (miscellaneous)
CiteScore
1.60
自引率
0.00%
发文量
4
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