APRENDIZAGEM DE MÁQUINA PARA IDENTIFICAÇÃO DE PLANTAS DE SOJA SOB ATAQUE DE INSETOS USANDO DADOS HIPERESPECTRAIS

Daniel Veras Correa, A. Ramos, Lucas Prado Osco, L. A. C. Jorge
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Abstract

The integration between the areas of remote sensing and machine learning has allowed an advance in the way of mapping agricultural fields and monitoring crops. This work investigates the ability of machine learning algorithms to classify soybean plants under insect attack, using reflectance spectroscopy measurements collected at the leaf level. To this end, tests were developed with different algorithms using a set of 991 spectral curves referring to healthy soybean plants under attack by pests, collected in eight consecutive days. These curves were measured by the EMBRAPA team, using a portable spectroradiometer, which records in the range of 350 to 2500 nm. Such curves were, initially, pre-processed to remove the regions of atmospheric absorption by water vapor, and then subdivided into a set of training, validation and testing of the machine learning algorithms. The Google Collabs interpreter was used and the algorithms were written in Python language, using libraries such as Skit Sklearn. Among the algorithms used, there are Random Forest, Decision Tree, Support Vector Machine, Logistic Regression and Extra-Tree. The Extra-tree has better performance (F1-score = 80.40%; precision = 81%; recall = 80%) in the proposed task. It is concluded that it is possible to process reflectance spectroscopy measurements with machine learning algorithms to monitor insect attack on soybean plants. It is recommended that the applied approach be tested in other cultures.
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利用高光谱数据的机器学习识别受昆虫攻击的大豆植物
遥感和机器学习领域之间的整合使得农业领域的测绘和监测作物的方式取得了进步。这项工作研究了机器学习算法在昆虫攻击下对大豆植物进行分类的能力,使用在叶片水平收集的反射光谱测量数据。为此,使用连续8天收集的991条健康大豆植株的光谱曲线,采用不同的算法开发了测试。这些曲线是由EMBRAPA团队使用便携式光谱辐射计测量的,记录范围在350到2500纳米之间。首先对这些曲线进行预处理,去除水蒸气吸收大气的区域,然后将其细分为一组机器学习算法的训练、验证和测试。使用Google Collabs解释器,算法用Python语言编写,使用Skit Sklearn等库。所使用的算法有随机森林、决策树、支持向量机、逻辑回归和Extra-Tree。Extra-tree性能更好(F1-score = 80.40%;精密度= 81%;召回率= 80%)。因此,利用机器学习算法处理反射率光谱测量来监测大豆植物的昆虫侵害是可能的。建议将适用的方法在其他文化中进行测试。
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审稿时长
12 weeks
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ESTUDO DE TRÁFEGO DE VEÍCULOS, INTERVENÇÕES DE SINALIZAÇÕES E URBANISMO TÁTICO NO ENTORNO DO HOSPITAL DA VIDA COMO POLO GERADOR DE VIAGENS ENGLISHVR: USO DE REALIDADE VIRTUAL NO ENSINO DA LÍNGUA INGLESA NAS ESCOLAS DE ENSINO FUNDAMENTAL ESTADUAL BRASILEIRO ANÁLISE DE METAIS POTENCIALMENTE CONTAMINANTES NOS PEIXES DO RIO TAQUARI, BACIA DO RIO PARAGUAI, MUNICÍPIO DE COXIM-MS MODELO SEMÂNTICO DE OPERAÇÕES ARITMÉTICAS E LÓGICAS PARA HARDWARE VIRTUAL PHYSIOVR: FERRAMENTA DE REALIDADE VIRTUAL APLICADO NA REABILITAÇÃO CARDIOVASCULAR
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