Implementation of Fuzzy Logic for Chili Irrigation Integrated with Internet of Things

Angga Prasetyo, Arief Rahman Yusuf, Yovi Litanianda, Sugianti Sugianti, Fauzan Masykur
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引用次数: 1

Abstract

Chili, mustard greens, and tomatoes have always been farmers' favored crops, despite their high water and labor demands. Adapt to these conditions by utilizing smart agriculture systems (SAS) agricultural techniques that involve technology such as automatic irrigation that regulates watering based solely on routine, regardless of land conditions. This type of control during the transitional season can lead to root rot and fungisarium disease on chile plants. In the form of an embedded system with internet of things (IoT) monitoring, a system incorporating artificial intelligence such as fuzzy logic is proposed as a solution. Fuzzy logic will regulate irrigation based on the land's humidity and temperature using computational mathematics. Beginning with the fuzzyification stage to map the sensor's temperature and humidity input values, fuzzy logic is applied. The creation of an inference engine in the NodeMcu 8266 microcontroller to interpret fuzzy rule statements in the form of aggregation of minimum conditions with the AND operator, followed by the combination of a single set value of 0 and 1 in the fuzzy system to produce an appropriate actuator response After the entire system has been prototyped, testing is conducted to determine the responsiveness of the fuzzy program code to changes in the simulated agricultural cultivation land ecosystem. This study found that the fuzzy logic program code embedded in the nodeMCU8266 microcontroller effectively controls the spraying duration of the pump in response to various simulated environmental conditions within 3.6 seconds.
辣椒灌溉模糊逻辑与物联网集成的实现
辣椒、芥菜和西红柿一直是农民喜欢的作物,尽管它们需要大量的水和劳动力。通过利用智能农业系统(SAS)农业技术来适应这些条件,这些技术包括自动灌溉等技术,可以根据常规情况调节浇水,而不考虑土地条件。这种在过渡季节的控制会导致辣椒植株的根腐病和真菌病。以具有物联网监控的嵌入式系统的形式,提出了一种结合模糊逻辑等人工智能的系统作为解决方案。模糊逻辑将根据土地的湿度和温度利用计算数学来调节灌溉。从模糊化阶段开始映射传感器的温度和湿度输入值,应用模糊逻辑。创建一个推理引擎在8266单片机NodeMcu解释模糊规则语句的形式聚合的最低条件和运营商,紧随其后的是一组值的组合模糊系统产生0和1的一个适当的执行器响应后整个系统原型,测试是确定模糊的响应进行程序代码的变化模拟农业耕作土地生态系统。本研究发现,嵌入在nodeMCU8266微控制器中的模糊逻辑程序代码可以有效地控制泵响应各种模拟环境条件的喷射持续时间在3.6秒内。
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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