HSL Color Space for Potato Plant Detection in the Field

Taher Deemyad, Anish Sebastain
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Abstract

This research paper discusses a vision system and image processing algorithms for an autonomous vehicle to be implemented for precision agriculture purposes. This system is a part of a larger project, to detect and remove potatoes infected by a commonly occurring virus (PVY – potato virus Y). For the detection and removal of infected plants, first, an unmanned aerial vehicle (UAV) equipped with a hyperspectral camera and a high precision GPS, will fly over the potato field collecting images of the plants. Using custom image analysis, the GPS location of the sick plant is identified and sent to an autonomous ground vehicle (AGV). This AGV will then navigate to the target location and rogue the infected plant automatically. The RTK GPS used here has an error of about 10cm. After the AGV reaches the target location the automatic roguing mechanism will still need to identify the sick plant. Potato seeds are planted at an average distance of about 30 centimeters, but in reality, this distance may vary significantly in the field. To positively identify the sick plant in real-time, a special image processing system was designed to detect and position the rouging arm over the center of the sick plant. This system uses an 8 Megapixel Pi camera to find the center of the target plant looking down. This system needs to work with high accuracy in a potato field where changing sunlight and weather conditions would hamper proper identification, HSL (hue, saturation, and lightness) format of images was used for better color detection. Two methods for finding the center of the plant were compared. These were compared to positive detection rates for various light levels, a variety of leaf colors, and expected location as opposed to actual plant location.
用于马铃薯田间植物检测的HSL色彩空间
本文讨论了一种用于精准农业的自动驾驶汽车的视觉系统和图像处理算法。该系统是一项更大的项目的一部分,该项目是检测和去除被一种常见病毒(PVY -马铃薯病毒Y)感染的马铃薯。为了检测和去除受感染的植株,首先,一架配备高光谱相机和高精度GPS的无人机(UAV)将飞越马铃薯田,收集植株的图像。通过自定义图像分析,识别出患病工厂的GPS位置并将其发送给自动地面车辆(AGV)。这台AGV会导航到目标位置,自动攻击被感染的植物。这里使用的RTK GPS有大约10厘米的误差。在AGV到达目标位置后,自动定位机构仍然需要识别患病植物。马铃薯种子的平均播种距离约为30厘米,但实际上,这个距离在田间可能会有很大变化。为了实时确定患病植物,设计了一种特殊的图像处理系统来检测和定位患病植物中心的胭脂臂。这个系统使用一个800万像素的Pi相机向下看,找到目标植物的中心。该系统需要在不断变化的阳光和天气条件会妨碍正确识别的马铃薯地里以高精度工作,因此使用HSL(色调、饱和度和亮度)格式的图像进行更好的颜色检测。比较了两种寻找植物中心的方法。将这些结果与各种光照水平、各种叶片颜色以及预期位置与实际植物位置的阳性检出率进行比较。
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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