Boost Precision Agriculture with Unmanned Aerial Vehicle Remote Sensing and Edge Intelligence: A Survey

Remote. Sens. Pub Date : 2021-10-30 DOI:10.3390/rs13214387
Jia Liu, Jianjian Xiang, Yongkui Jin, Ren Liu, Jining Yan, Lizhe Wang
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引用次数: 46

Abstract

In recent years unmanned aerial vehicles (UAVs) have emerged as a popular and cost-effective technology to capture high spatial and temporal resolution remote sensing (RS) images for a wide range of precision agriculture applications, which can help reduce costs and environmental impacts by providing detailed agricultural information to optimize field practices. Furthermore, deep learning (DL) has been successfully applied in agricultural applications such as weed detection, crop pest and disease detection, etc. as an intelligent tool. However, most DL-based methods place high computation, memory and network demands on resources. Cloud computing can increase processing efficiency with high scalability and low cost, but results in high latency and great pressure on the network bandwidth. The emerging of edge intelligence, although still in the early stages, provides a promising solution for artificial intelligence (AI) applications on intelligent edge devices at the edge of the network close to data sources. These devices are with built-in processors enabling onboard analytics or AI (e.g., UAVs and Internet of Things gateways). Therefore, in this paper, a comprehensive survey on the latest developments of precision agriculture with UAV RS and edge intelligence is conducted for the first time. The major insights observed are as follows: (a) in terms of UAV systems, small or light, fixed-wing or industrial rotor-wing UAVs are widely used in precision agriculture; (b) sensors on UAVs can provide multi-source datasets, and there are only a few public UAV dataset for intelligent precision agriculture, mainly from RGB sensors and a few from multispectral and hyperspectral sensors; (c) DL-based UAV RS methods can be categorized into classification, object detection and segmentation tasks, and convolutional neural network and recurrent neural network are the mostly common used network architectures; (d) cloud computing is a common solution to UAV RS data processing, while edge computing brings the computing close to data sources; (e) edge intelligence is the convergence of artificial intelligence and edge computing, in which model compression especially parameter pruning and quantization is the most important and widely used technique at present, and typical edge resources include central processing units, graphics processing units and field programmable gate arrays.
无人机遥感与边缘智能助推精准农业
近年来,无人驾驶飞行器(uav)已成为一种流行且具有成本效益的技术,用于捕获高时空分辨率遥感(RS)图像,用于广泛的精准农业应用,它可以通过提供详细的农业信息来优化田间实践,从而帮助降低成本和环境影响。此外,深度学习(DL)作为一种智能工具已经成功地应用于农业领域,如杂草检测、作物病虫害检测等。然而,大多数基于dl的方法对资源的计算、内存和网络要求很高。云计算具有高可扩展性和低成本的特点,可以提高处理效率,但时延高,网络带宽压力大。边缘智能的出现虽然仍处于早期阶段,但为靠近数据源的网络边缘智能边缘设备上的人工智能(AI)应用提供了一个有前途的解决方案。这些设备内置处理器,支持板载分析或人工智能(例如,无人机和物联网网关)。因此,本文首次对无人机遥感与边缘智能在精准农业领域的最新发展进行了全面的调研。观察到的主要见解如下:(a)在无人机系统方面,小型或轻型,固定翼或工业旋翼无人机广泛应用于精准农业;(2)无人机上的传感器可以提供多源数据集,智能精准农业的公开无人机数据集很少,主要来自RGB传感器,少数来自多光谱和高光谱传感器;(c)基于dl的无人机遥感方法可分为分类、目标检测和分割任务,其中卷积神经网络和递归神经网络是最常用的网络架构;(d)云计算是无人机遥感数据处理的通用解决方案,而边缘计算使计算更接近数据源;(e)边缘智能是人工智能和边缘计算的融合,其中模型压缩特别是参数修剪和量化是目前最重要和应用最广泛的技术,典型的边缘资源包括中央处理器、图形处理单元和现场可编程门阵列。
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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