监测微型番茄生长:一种非破坏性的基于机器视觉的替代方案

IF 2.4 4区 农林科学 Q2 AGRICULTURAL ENGINEERING
Fernando Ferreira Abreu, Luiz Henrique Antunes Rodrigues
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引用次数: 0

摘要

产量是衡量作物性能最常用的指标,它可以定义为产量(以质量或体积的函数表示)与耕地面积之间的比率。估计水果的体积通常依赖于人工测量,而且测量过程的精度因人而异。测量水果的质量也会破坏样品;因此,变化将用不同的样品来测量。监测水果生长要么是基于破坏性试验,受人力限制,要么是过于昂贵而无法规模化。在这项工作中,我们展示了在具有复杂背景的自然环境中,使用图像处理可以用来描述温室中迷你番茄的生长。该方法基于深度学习算法,可以在不与集群接触的情况下进行连续监测。使用低成本的设备,以最小的参数化从温室收集和传送图像。我们的研究结果表明,簇的可见面积积累与参数化Gompertz曲线描述的生长高度相关(R²=0.97),这是一个众所周知的生长函数。这项工作也可能是基于图像分割的替代生长监测方法的起点。提出的U-Net体系结构、对其体系结构的讨论以及自然环境的挑战可以用于农业背景下的其他任务。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Monitoring mini-tomatoes growth: A non-destructive machine vision-based alternative
Yield is the most often used metric of crop performance, and it can be defined as the ratio between production, expressed as a function of mass or volume, and the cultivated area. Estimating fruit’s volume often relies on manual measurements, and the procedure precision can change from one person to another. Measuring fruits’ mass will also destroy the samples; consequently, the variation will be measured with different samples. Monitoring fruit’s growth is either based on destructive tests, limited by human labour, or too expensive to be scaled. In this work, we showed that the cluster visible area could be used to describe the growth of mini tomatoes in a greenhouse using image processing in a natural environment with a complex background. The proposed method is based on deep learning algorithms and allows continuous monitoring with no contact with the cluster. The images are collected and delivered from the greenhouse using low-cost equipment with minimal parameterisation. Our results demonstrate that the cluster visible area accumulation is highly correlated (R²=0.97) with growth described by a parameterised Gompertz curve, which is a well-known growth function. This work may also be a starting point for alternative growth monitoring methods based on image segmentation. The proposed U-Net architecture, the discussion about its architecture, and the challenges of the natural environment may be used for other tasks in the agricultural context.
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来源期刊
Journal of Agricultural Engineering
Journal of Agricultural Engineering AGRICULTURAL ENGINEERING-
CiteScore
2.30
自引率
5.60%
发文量
40
审稿时长
10 weeks
期刊介绍: The Journal of Agricultural Engineering (JAE) is the official journal of the Italian Society of Agricultural Engineering supported by University of Bologna, Italy. The subject matter covers a complete and interdisciplinary range of research in engineering for agriculture and biosystems.
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