Hardware Design and Lung Sound Detection Simulation to Analyze Lung Abnormalities Based on Arduino Mega, NodeMCU ESP32 and Internet of Things

Amperawan Amperawan, Destra Andika, Dewi Permatasari, Sabilal Rasyad, Aldi Wijaya, Muhammad Taufiqurahman Arrasyid, Zainudin b Mat Taib, Nuwairani Azurawati bt Siha
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Abstract

Hardware Design and Simulation of Lung Sound Detector to Analyze Lung Abnormalities Based on Arduino Mega and NodeMCU ESP32 is a development of auscultation technique which is supported by signal display on oscilloscope, organic light-emitting diodes and computer on the lung sound detection circuit system connected to NodeMCU ESP32. The design and simulation consists of a stethoscope as an initial detection, then amplified with a mic-condenser pre-amp circuit connected a band pass filter, a buffer amplifier entering ADC 0 (GPIO36) processed by NodeMCU ESP32 and sending data in the form of free frequency via Arduino Mega and NodeMCU ESP32 as transmitters. and mobile phones as receivers of the frequency form display of lung sounds. Software for NodeMCU ESP32 communication with mobile phone using Blink software based on Internet of Things (IoT). In detecting the condition of the patient's lungs, it provides information that on the signal display on oscilloscopes, organic lightemitting diodes, computers and mobile phone, namely by displaying the sound of the lungs when exhaling and inhaling air from the test results can detect lung sounds which have a frequency limit of 20 Hz. up to 1000 Hz. to make it easier for doctors to analyze the patient's lung abnormalities from the observed frequency.
基于Arduino Mega、NodeMCU ESP32和物联网的肺部异常分析硬件设计及肺声检测仿真
基于Arduino Mega和NodeMCU ESP32的肺声检测仪器肺部异常分析硬件设计与仿真是在连接NodeMCU ESP32的肺声检测电路系统上,以示波器、有机发光二极管和计算机为信号显示支撑的听诊技术的一种发展。设计与仿真由听诊器作为初始检测,然后通过连接带通滤波器的mic-电容前置放大器电路进行放大,由NodeMCU ESP32处理的缓冲放大器进入ADC 0 (GPIO36),并通过Arduino Mega和NodeMCU ESP32作为发射器发送自由频率形式的数据。手机作为肺部声音频率显示的接收器。基于物联网(IoT)的Blink软件实现NodeMCU ESP32与手机通信。在检测患者肺部状况时,它提供的信息是在示波器、有机发光二极管、计算机和移动电话的信号显示上,即通过显示肺部呼出和吸入空气时的声音,从检测结果中可以检测到频率限制为20hz的肺部声音。高达1000hz。使医生更容易从观察到的频率分析患者的肺部异常。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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