Design of Fuzzy Logic System for Disinfectant Liquid Monitoring Using the Internet of Things

Bagas Wahyu Prakoso, Anifatul Faricha, D. Adiputra, Mochamad Fauzan Rasyid, Moch. Bagus Indrastata Purahita, Billy Montolalu
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引用次数: 1

Abstract

New health protocols have been carried out to prevent, if not, to reduce the coronaviruses' spread, such as wearing masks, keeping body hygiene, and social distancing. One way to keep body hygiene is by spraying disinfectant liquid all over the body before entering a room or office. A safe disinfectant liquid should kill the viruses on the body surface without irritating the skin, and one way to synthesis the safe disinfectant liquid is electrolysis. Real-time monitoring of the liquid during electrolysis is important to get the safe disinfectant liquid. Monitoring Disinfectant (MODIS) based on the Internet of Things (IoT) is proposed to automate the electrolysis process using sensors and actuators. MODIS should conduct two processes simultaneously, which are determining the timing of the electrolysis and assessing the liquid quality. Fuzzy Logic (FL) system was developed to fulfill the needs. The inputs were pH and Oxidation Reduction Potential (ORP), while the outputs were electrolysis timing and liquid quality. A combination of trapezoid and triangle membership functions were used to describe the inputs and outputs. The rules were developed based on chemists' criteria, such as the electrolysis stopped at pH 5 and the safe quality is -100 to -80 mV ORP. The simulation result shows that the FL system can simultaneously conduct both processes without being disturbed by the other input. For instance, the electrolysis timing was affected by pH data only, and liquid quality was only affected by ORP. In the future, the MODIS prototype should facilitate the FL system's needs to enable real-time monitoring based on IoT, such as by having pH and ORP sensors that can withstand the electrolysis process.
基于物联网的消毒液监测模糊逻辑系统设计
为了防止(如果不能的话)减少冠状病毒的传播,已经实施了新的卫生方案,例如戴口罩、保持身体卫生和保持社交距离。保持身体卫生的一种方法是在进入房间或办公室之前在全身喷洒消毒液。安全的消毒液应能杀死体表的病毒而不刺激皮肤,电解是合成安全消毒液的一种方法。电解液的实时监测对获得安全的消毒液具有重要意义。提出了基于物联网(IoT)的监测消毒液(MODIS),利用传感器和执行器实现电解过程自动化。MODIS应同时进行电解时间的确定和液质评价两个过程。为此,开发了模糊逻辑(FL)系统。输入值为pH值和氧化还原电位(ORP),输出值为电解时间和液质。使用梯形和三角形隶属函数的组合来描述输入和输出。这些规则是根据化学家的标准制定的,例如电解在pH为5时停止,安全质量为-100至-80 mV ORP。仿真结果表明,该系统可以同时进行两个过程,而不受其他输入的干扰。例如,电解时间仅受pH值的影响,液质仅受ORP的影响。在未来,MODIS原型应该促进FL系统的需求,以实现基于物联网的实时监控,例如通过具有能够承受电解过程的pH和ORP传感器。
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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