Detection of Leak Areas in Vineyard Irrigation Systems Using UAV-Based Data

Drones Pub Date : 2024-05-08 DOI:10.3390/drones8050187
Luís Pádua, P. Marques, L. Dinis, J. Moutinho-Pereira, J. J. Sousa, R. Morais, Emanuel Peres
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Abstract

Water is essential for maintaining plant health and optimal growth in agriculture. While some crops depend on irrigation, others can rely on rainfed water, depending on regional climatic conditions. This is exemplified by grapevines, which have specific water level requirements, and irrigation systems are needed. However, these systems can be susceptible to damage or leaks, which are not always easy to detect, requiring meticulous and time-consuming inspection. This study presents a methodology for identifying potential damage or leaks in vineyard irrigation systems using RGB and thermal infrared (TIR) imagery acquired by unmanned aerial vehicles (UAVs). The RGB imagery was used to distinguish between grapevine and non-grapevine pixels, enabling the division of TIR data into three raster products: temperature from grapevines, from non-grapevine areas, and from the entire evaluated vineyard plot. By analyzing the mean temperature values from equally spaced row sections, different threshold values were calculated to estimate and map potential leaks. These thresholds included the lower quintile value, the mean temperature minus the standard deviation (Tmean−σ), and the mean temperature minus two times the standard deviation (Tmean−2σ). The lower quintile threshold showed the best performance in identifying known leak areas and highlighting the closest rows that need inspection in the field. This approach presents a promising solution for inspecting vineyard irrigation systems. By using UAVs, larger areas can be covered on-demand, improving the efficiency and scope of the inspection process. This not only reduces water wastage in viticulture and eases grapevine water stress but also optimizes viticulture practices.
利用基于无人机的数据检测葡萄园灌溉系统的渗漏区域
在农业生产中,水对于保持植物健康和最佳生长至关重要。有些作物需要灌溉,有些作物则可以依靠雨水,这取决于地区气候条件。例如,葡萄对水位有特殊要求,因此需要灌溉系统。然而,这些系统很容易损坏或渗漏,而且并不总能轻易发现,需要进行细致、耗时的检查。本研究介绍了一种利用无人飞行器 (UAV) 获取的 RGB 和热红外 (TIR) 图像识别葡萄园灌溉系统潜在损坏或泄漏的方法。RGB 图像用于区分葡萄树和非葡萄树像素,从而将 TIR 数据分为三种栅格产品:葡萄树、非葡萄树区域和整个被评估葡萄园地块的温度。通过分析等间距行剖面的平均温度值,计算出不同的阈值来估算和绘制潜在的泄漏点。这些阈值包括下五分位值、平均温度减去标准偏差(Tmean-σ)和平均温度减去标准偏差的两倍(Tmean-2σ)。较低的五分位数阈值在识别已知泄漏区域和突出显示需要实地检查的最近行方面表现最佳。这种方法为检测葡萄园灌溉系统提供了一种前景广阔的解决方案。通过使用无人机,可以按需覆盖更大的区域,提高检查过程的效率和范围。这不仅能减少葡萄栽培中的水资源浪费,缓解葡萄树的用水压力,还能优化葡萄栽培实践。
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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