A Study of Factors Influencing Plant Growth by WSN Approach and Plant Nutrient Deficiency Classification in Tomato Using SVM

Vrunda Kusanur, V. S. Chakravarthi
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Abstract

Soil temperature and humidity straight away influence plant growth and the availability of plant nutrients. In this work, we carried out experiments to identify the relationship between climatic parameters and plant nutrients. When the relative humidity was very high, deficiency symptoms were shown on plant leaves and fruits. But, recognizing and managing these plant nutrients manually would become difficult. However, no much research has been done in this field. The main objective of this research was to propose a machine learning model to manage nutrient deficiencies in the plant. There were two main phases in the proposed research. In the first phase, the humidity, temperature, and soil moisture in the greenhouse environment were collected using WSN and the influence of these parameters on the growth of plants was studied. During experimentation, it was investigated that the transpiration rate decreased significantly and the macronutrient contents in the plant leave decreased when the humidity was 95%. In the second phase, a machine learning model was developed to identify and classify nutrient deficiency symptoms in a tomato plant. A total of 880 images were collected from Bingo images to form a dataset. Among all these images, 80% (704 images) of the dataset were used to train the machine learning model and 20% (176 images) of the dataset were used for testing the model performance. In this study, we selected K-means Clustering for keypoints detection and SVM for classification and prediction of nutrient stress in the plant. SVM using linear kernel performed better with the accuracy rates of 89.77 % as compared to SVM using a polynomial kernel.
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基于WSN方法的植物生长影响因素研究及支持向量机对番茄植株养分缺乏的分类
土壤温度和湿度直接影响植物生长和植物养分的有效性。在这项工作中,我们进行了实验,以确定气候参数和植物养分之间的关系。当相对湿度很高时,植物叶片和果实出现亏缺症状。但是,手动识别和管理这些植物营养物质将变得困难。然而,这方面的研究还不多。本研究的主要目的是提出一种机器学习模型来管理植物的营养缺乏。在拟议的研究中有两个主要阶段。第一阶段,利用无线传感器网络采集温室环境的湿度、温度和土壤水分,研究这些参数对植物生长的影响。在试验中,研究了湿度为95%时,植物蒸腾速率显著降低,叶片中常量营养素含量降低。在第二阶段,开发了一个机器学习模型来识别和分类番茄植株的营养缺乏症状。从Bingo图像中共收集880张图像,形成数据集。在所有这些图像中,80%(704张)的数据集用于训练机器学习模型,20%(176张)的数据集用于测试模型性能。在本研究中,我们选择K-means聚类进行关键点检测,选择SVM进行植物营养胁迫的分类和预测。使用线性核的支持向量机比使用多项式核的支持向量机准确率高89.77%。
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