基于机械通风机系统数值预测的两级联矢量控制器的线性化

Aarón Antonio Flores-Patricio, David Eduardo Pérez-Mendoza, Ángel de Salem Martínez-Casaos, Javier Gerardo Urrecha-Zambada, Miguel E. Paulín-Rodríguez, Carolina Cristerna-Mondragón, José Pablo Cabrera-Flores, E. E. Rodríguez-Vázquez
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引用次数: 0

摘要

随着新型冠状病毒感染症(COVID-19)病例的增加,对呼吸机的需求增加到设备供应不足的程度。出于这个原因,这项研究是基于麻省理工学院提出的一个开源项目,该项目涉及人工手动呼吸装置(AMBU袋)的调节,它可以帮助患者保持恒定的呼吸周期。本文介绍了通过实现一个空间状态模型来计算呼吸机机电和生物气动系统的控制矩阵,该模型允许获得可能减少呼吸机开环操作误差的控制增益;此外,本文还通过SIMULINK仿真验证了所计算控制矩阵的有效性。由于这些图形演示,观察到实施的控制器提供了响应时间的增加并减少了误差,因此,理论上,两个控制器都必须为呼吸机提供稳定性和更高的性能,从而为住院的COVID-19患者提供适当的帮助;但是,目前这个项目是不可行的,因为它没有在现实生活中进行测试,它不符合在紧急情况下使用的质量和医疗要求。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Linear Sintonization of Two Cascade Vectorial Controllers from the Numerical Prediction of a Mechanical Ventilator System
With the increasing number of COVID-19 cases, the demand of ventilators has increased to such an extent that there is not enough supply of equipment available. For this reason, this research is based on an open source project presented by the Massachusetts Institute of Technology which involves the conditioning of an Artificial Manual Breathing Unit (AMBU bag), that acts as an aid for patients to maintain a constant respiratory cycle. This document presents the calculation of the control matrix for the mechatronic and bio pneumatic systems of the ventilator by implementing a Space-State Model that allows to obtain the control gains that may reduce the error concerning the open loop operation of the ventilator; furthermore, this paper also presents the SIMULINK simulations that demonstrate the efficiency of the calculated control matrixes. Due to these graphic demonstrations, it was observed that the implemented controllers provided an increase in the response time and reduced the error, thus, theoretically, both controllers must provide stability and a higher performance to the ventilator prompting an appropriate assistance to the hospitalized victims of the COVID-19; however, currently, this project is not viable, as it has not been tested in real life and it does not meet the quality and medical requirements for its use in emergencies.
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