Detection of White Stem Borer Disease in Coffee Plantation using Autonomous Multi Terrain Robot

Likhitha Sindhu Geddam, Ananya Mungara, Kiriti Kapavari, Karthikeya Jayarama, S. Tripathi
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Abstract

A number of nations’ economies rely heavily on the production of coffee. The coffee plant has experienced significant damage as a result of a White Stem Borer (WSB) bug. The WSB bores into the coffee stem and stays buried there until the plant fully falls. As it is challenging to diagnose the disease in the early stages of its infestation, this disease greatly distresses coffee growers. In order to find a way to prevent the significant yield loss, we built on a dataset of WSB-infected stems, identified 3 distinct features to classify infected coffee stems and distinguish them from healthy stems, and then trained YoloV5 deep learning model. We developed a model using augmented images from the existing image data after dividing it into training and testing sets. mAP, precision, and recall of 81.9, 89.7 and 73.8 percentages respectively were obtained, which would increase substantially with larger data size. The proposed method of utilising the bark’s characteristics for early detection of stem borer disease has not been explored so far. The image processing pipeline implemented is accompanied by the simulation of Arabica Coffee plantationlike environments. The simulations focus on the Jackal UGV as it is an ideal robot for the use case of autonomous deployment in mapping and navigation of the plantations. Functionalities such as Elevation Mapping, State Estimation and Localisation have been incorporated in tandem so that data captured by use of a depth camera can be used efficiently for operation.
自主多地形机器人检测咖啡种植园白茎螟虫病
许多国家的经济严重依赖咖啡的生产。由于白茎蛀虫(WSB)的影响,咖啡树遭受了严重的损害。WSB钻入咖啡茎,并埋在那里,直到植物完全倒下。由于在其侵袭的早期阶段诊断这种疾病具有挑战性,因此这种疾病极大地困扰着咖啡种植者。为了找到防止显著产量损失的方法,我们建立了wsb感染咖啡茎的数据集,识别出3个明显的特征来对感染的咖啡茎进行分类,并将其与健康的咖啡茎区分开来,然后训练YoloV5深度学习模型。在将现有图像数据分为训练集和测试集之后,我们使用增强图像开发了一个模型。mAP、precision和召回率分别为81.9、89.7和73.8,随着数据量的增加,mAP、precision和召回率将大幅提高。提出的方法利用树皮的特点,为茎螟虫病的早期检测尚未探索到目前为止。实现的图像处理管道伴随着模拟阿拉比卡咖啡种植园般的环境。模拟的重点是Jackal UGV,因为它是在种植园测绘和导航中自主部署的理想机器人。高程映射、状态估计和定位等功能已经结合在一起,因此使用深度相机捕获的数据可以有效地用于操作。
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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