A Simple Ventilator Designed To Be Used in Shortage Crises: Construction and Verification Testing.

JMIR biomedical engineering Pub Date : 2021-08-05 eCollection Date: 2021-07-01 DOI:10.2196/26047
Daniel S Akerib, Andrew Ames, Martin Breidenbach, Michael Bressack, Pieter A Breur, Eric Charles, David M Gaba, Ryan Herbst, Christina M Ignarra, Steffen Luitz, Eric H Miller, Brian Mong, Tom A Shutt, Matthias Wittgen
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引用次数: 6

Abstract

Background: The COVID-19 pandemic has demonstrated the possibility of severe ventilator shortages in the near future.

Objective: We aimed to develop an acute shortage ventilator.

Methods: The ventilator was designed to mechanically compress a self-inflating bag resuscitator, using a modified ventilator patient circuit, which is controlled by a microcontroller and an optional laptop. It was designed to operate in both volume-controlled mode and pressure-controlled assist modes. We tested the ventilator in 4 modes using an artificial lung while measuring the volume, flow, and pressure delivered over time by the ventilator.

Results: The ventilator was successful in reaching the desired tidal volume and respiratory rates specified in national emergency use resuscitator system guidelines. The ventilator responded to simulated spontaneous breathing.

Conclusions: The key design goals were achieved. We developed a simple device with high performance for short-term use, made primarily from common hospital parts and generally available nonmedical components to avoid any compatibility or safety issues with the patient, and at low cost, with a unit cost per ventilator is less than $400 US excluding the patient circuit parts, that can be easily manufactured.

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一种用于短缺危机的简易通风机:构造与验证试验。
背景:COVID-19大流行表明,在不久的将来可能出现严重的呼吸机短缺。目的:研制一种急性缺氧呼吸机。方法:采用一种改进的呼吸机病人电路,采用微控制器和可选笔记本电脑控制,设计呼吸机机械压缩自充气气囊式复苏器。它被设计为在音量控制模式和压力控制辅助模式下运行。我们使用人工肺在4种模式下测试了呼吸机,同时测量了呼吸机随时间传递的体积、流量和压力。结果:该呼吸机成功达到国家紧急使用复苏器系统指南规定的潮气量和呼吸频率。呼吸机对模拟的自主呼吸有反应。结论:达到了主要设计目标。我们开发了一种简单的短期使用的高性能设备,主要由常见的医院部件和一般可用的非医疗部件制成,以避免与患者的任何兼容性或安全问题,并且成本低,每个呼吸机的单位成本低于400美元,不包括患者电路部件,可以很容易地制造。
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