云计算
物联网
计算机科学
过程(计算)
接口(物质)
绘图(图形)
领域(数学)
无人机
小气候
无线传感器网络
遥感
地理
万维网
生物
遗传学
统计
操作系统
数学
最大气泡压力法
气泡
考古
计算机网络
并行计算
纯数学
作者
Antonio Marcos Massao Hachisuca,Eduardo Godoy de Souza,Wendel Kaian Oliveira Moreira,Cláudio Leones Bazzi,D. Donato,Isaque de Souza Mendes,Mahuan Capeletto Abdala,Erivelto Mercante
出处
期刊:MethodsX
[Elsevier]
日期:2023-12-01
卷期号:11: 102419-102419
标识
DOI:10.1016/j.mex.2023.102419
摘要
Currently, Brazil is one of the world's largest grain producers and exporters. Agriculture has already entered its 4.0 version (2017), also known as digital agriculture, when the industry has entered the 4.0 era (2011). This new paradigm uses Internet of Things (IoT) techniques, sensors installed in the field, network of interconnected sensors in the plot, drones for crop monitoring, multispectral cameras, storage and processing of data in Cloud Computing, and Big Data techniques to process the large volumes of generated data. One of the practical options for implementing precision agriculture is the segmentation of the plot into management zones, aiming at maximizing profits according to the productive potential of each zone, being economically viable even for small producers. Considering that climate factors directly influence yield, this study describes the development of a sensor network for climate monitoring of management zones (microclimates), allowing the identification of climate factors that influence yield at each of its stages.•Application of the internet of things to assist in decision making in the agricultural production system.•AgDataBox (ADB-IoT) web platform has an Application Programming Interface (API).•An agrometeorological station capable of monitoring all meteorological parameters was developed (Kate 3.0).
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