Design of Crop Irrigation Decision-Making System Based on ZigBee Technology

Qiang Sheng, Xinyu Li, Yuxiao Han, Han Li, Man Zhang
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Abstract

Abstract: To promote the high-quality development of agriculture, meet the needs of agricultural products grown in greenhouses, and achieve precise monitoring of greenhouse plants, a small greenhouse micro-environment multi-parameter monitoring system was designed and implemented. The system consists of three parts: a monitoring node, a gateway node, and a remote management platform. The monitoring node used the ESP32 microcontroller as the main control chip, combined ZigBee technology, and embedded different sensors to complete the collection and transmission of environmental parameters. In the gateway node, the 4G Data Transfer Unit module was used as the carrier, and the communication protocol was used to realize data communication between the monitoring terminal and the gateway. The remote management platform was based on the PyCharm development platform. It used the PyQt5 graphical user interface (GUI) toolkit to complete the design of the host computer monitoring platform, establish a database, and realize the storage and analysis of environmental parameters. The remote management platform embedded the crop reference evapotranspiration, online calculation model, to provide irrigation decisions for greenhouse crop management and improve the applicability and accuracy of irrigation decisions. After the experimental test platform was built to test the system communication distance, communication reliability, control reliability, and data reliability, the small greenhouse micro-environment multi-parameter monitoring system designed in this paper can operate stably for a long time. Its functions meet the expected requirements and are in line with modern requirements for multi-parameter monitoring of smart greenhouses.
基于 ZigBee 技术的作物灌溉决策系统设计
摘要:为促进农业高质量发展,满足大棚种植农产品的需求,实现对大棚植物的精准监测,设计并实现了小型大棚微环境多参数监测系统。系统由监控节点、网关节点和远程管理平台三部分组成。监测节点采用ESP32单片机作为主控芯片,结合ZigBee技术,嵌入不同传感器,完成环境参数的采集和传输。在网关节点中,采用4G数据传输单元模块作为载体,采用通信协议实现监控终端与网关之间的数据通信。远程管理平台基于PyCharm开发平台。采用PyQt5图形用户界面(GUI)工具包,完成上位机监控平台的设计,建立数据库,实现环境参数的存储和分析。远程管理平台嵌入作物参考蒸散量在线计算模型,为温室作物管理提供灌溉决策,提高灌溉决策的适用性和准确性。通过搭建实验测试平台,对系统通信距离、通信可靠性、控制可靠性、数据可靠性进行测试后,本文设计的小温室微环境多参数监测系统能够长期稳定运行。其功能达到预期要求,符合现代智能大棚多参数监控的要求。
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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