基于pid的ICU呼吸机吸入氧分数(FiO2)控制系统

Muhamad Fahrur Radzi, H. Saputra, C. H. A. Baskoro, M. Mirdanies, Rizal Imam Abdul Aziz, N. Ismail
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引用次数: 3

摘要

冠状病毒病(COVID-19)影响患者的呼吸系统,因此需要以呼吸辅助的形式进行治疗,包括侵入性和非侵入性治疗。ICU呼吸机系统是一种侵入性呼吸设备,它的使用是通过患者的嘴或鼻子插入呼吸设备。吸入氧分数(FiO2)是ICU呼吸机系统中必须调节的变量之一,因为它影响进入人体的氧气水平。将PID控制应用于空气和氧气比例流量控制阀,实现空气和氧气的自动混合。本文对ICU呼吸机吸入氧的pid控制进行了探讨。调节混合槽内混合气流与氧气的比例,将产生具有所需吸入氧分数的气流。采用teeny4.0单片机和C语言编程实现PID控制算法。在本研究中,空气比例流量设定点为30lpm,氧气比例流量设定点为60lpm,氧气比例流量设定点为100lpm,使用PID调谐器确定最佳Kp、Ki和Kd值。这些值能够根据ICU呼吸机上所需的设定值对FiO2进行精确和准确的控制。FiO2测试结果得到的上升时间平均值为13478 ms,超调值为0.11%,沉降时间为19803 ms,稳态误差为1.15%。同时,吸气流量测试结果的平均上升时间为964 ms,超调量为5.43%,沉降时间为4697 ms,稳态误差为0.98%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
PID-Based Fraction of Inspired Oxygen (FiO2) Control System in ICU Ventilator
Coronavirus Disease (COVID-19) affects the respiratory system in affected patients, so treatment is needed in the form of respiratory assistance, both invasive and non-invasive. The ICU ventilator system is one of the breathing apparatus that works invasively where its use is by inserting a breathing apparatus through the patient’s mouth or nose. The fraction of inspired oxygen (FiO2) is one of the variables that must be regulated in an ICU ventilator system because it affects the level of oxygen that enters the human body. Mixing of air and oxygen gas is done automatically using PID control which is applied to the proportional flow control valve of air and oxygen. This paper discusses the control of PID-based Fraction of inspired oxygen implanted in the ICU Ventilator. Adjusting the ratio of airflow and oxygen mixed in the mixing tank will produce airflow with the desired fraction of inspired oxygen. Teensy 4.0 Microcontroller and the C programming language are used to execute the PID control algorithm. In this study, the best Kp, Ki, and Kd values were determined using the PID Tuner, for the air proportional flow setpoint and oxygen proportional flow setpoints of 30, 60, and 100 LPM, respectively. These values are able to produce precise and accurate control of the FiO2 according to the desired setpoint on the ICU Ventilator. The results of the FiO2 test obtained an average value for rise time of 13478 ms, overshoot of 0.11%, settling time of 19803 ms, and steady-state error of 1.15%. Meanwhile, the results of the inspiratory flow test obtained an average value for a rise time of 964 ms, an overshoot of 5.43%, a settling time of 4697 ms, and a steady-state error of 0.98%.
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