Internet of Things Smart Farming Architecture for Agricultural Automation

Adrián Sánchez-Mompó, Heloise Barbier, Won-Jae Yi, J. Saniie
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引用次数: 1

Abstract

With the increase of global demand for food and with the adoption of the trends of local sourcing and locally grown produce, the need for gardening and farming automation solutions ranging from industrial to home level has been on the rise. In this paper, we propose an Internet of Things (IoT) farming control system based on the concept of Wireless Sensor and Actuator Networks (WSAN) that provides ideal growing conditions for user-defined crops. This is achieved by utilizing the information provided by a series of sensors monitoring the environmental (temperature, humidity, UV, etc.) and soil (moisture, nutrients, etc.) conditions to control the deployed actuators. To allow a wide range of deployment sizes, we use a two-stage system that combines a series of low-power sensor and actuator nodes with a communication and data processing gateway. The low-power microcontroller reads the data from the sensors and sends them to the data processing gateway, which then calculates the optimal actuator changes required to achieve the desired status. These changes are then feedbacked to the low-power microcontroller which actuates the control devices. The communication between the devices is performed via a bespoke LoRa-based communication protocol optimized for minimal overhead, flexibility, and guaranteed data delivery. This is presented to the user via a website to view the configuration of the system and the observation of the past and present environmental, soil, and actuator status of the system.
面向农业自动化的物联网智能农业架构
随着全球对食品需求的增加,以及采用本地采购和本地种植农产品的趋势,从工业到家庭层面对园艺和农业自动化解决方案的需求一直在上升。在本文中,我们提出了一种基于无线传感器和执行器网络(WSAN)概念的物联网(IoT)农业控制系统,该系统为用户定义的作物提供理想的生长条件。这是通过利用一系列监测环境(温度、湿度、紫外线等)和土壤(水分、养分等)条件的传感器提供的信息来控制部署的执行器来实现的。为了允许广泛的部署规模,我们使用了一个两级系统,该系统将一系列低功耗传感器和执行器节点与通信和数据处理网关相结合。低功耗微控制器从传感器读取数据并将其发送到数据处理网关,然后计算实现所需状态所需的最佳执行器更改。然后将这些变化反馈给驱动控制设备的低功耗微控制器。设备之间的通信通过定制的基于lora的通信协议执行,该协议优化了最小的开销、灵活性和有保证的数据传输。用户可以通过网站查看系统的配置,并观察系统过去和现在的环境、土壤和执行器状态。
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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