Smart automated irrigation system with disease prediction

L. Yashaswini, H. Vani, H. N. Sinchana, Nithin Kumar
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引用次数: 11

Abstract

Precision agriculture have gained wide popularity in recent years for its high-ranking applications such as remote environment monitoring, disease detection, insects and pests management etc. In addition, the advancement in Internet of Things (IOT) through which we can connect real world objects to obtain the information such as physical phenomenon through sensors in the field of agriculture. This paper reports on the smart automated irrigation system with disease detection. The system design includes soil moisture sensors, temperature sensors, leaf wetness sensors deployed in agriculture field, the sensed data from sensors will be compared with pre-determined threshold values of various soil and specific crops. The deployed sensors data are fed to the Arduino Uno processor which is linked to the data centre wirelessly via GSM module. The data received by the data centre is stored to perform data analysis using data mining technique such as Markov model to detect the possible disease for that condition. Finally, the analysis results and observed physical parameters are transmitted to Android smart phone and displayed on user interface. The user interface in smart phone allows remote user to control irrigation system by switching, on and off, the motor pump by the Arduino based on the commands from the Android smart phone.
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具有疾病预测功能的智能自动灌溉系统
近年来,精准农业因其远程环境监测、疾病检测、病虫害管理等高级应用而受到广泛欢迎。此外,物联网(IOT)的进步,通过农业领域的传感器,我们可以连接现实世界的物体,获取物理现象等信息。本文报道了具有病害检测功能的智能自动灌溉系统。该系统设计包括部署在农业田间的土壤湿度传感器、温度传感器、叶片湿度传感器,传感器的传感数据将与预先确定的各种土壤和特定作物的阈值进行比较。部署的传感器数据被馈送到Arduino Uno处理器,该处理器通过GSM模块无线连接到数据中心。存储数据中心接收到的数据,使用马尔可夫模型等数据挖掘技术进行数据分析,以检测该病症的可能疾病。最后将分析结果和观测到的物理参数传输到Android智能手机上,并显示在用户界面上。智能手机的用户界面允许远程用户根据Android智能手机的命令,通过Arduino开关电机泵来控制灌溉系统。
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