Dr. R.Mathusoothana Kumar Dr. R.Mathusoothana Kumar
{"title":"Crop yield prediction by Mestrial Environ Netsual Network (MENN)","authors":"Dr. R.Mathusoothana Kumar Dr. R.Mathusoothana Kumar","doi":"10.47679/ijasca.v4i1.59","DOIUrl":null,"url":null,"abstract":"Crop yield prediction methods can roughly predict actual yield, although better yield prediction performance is still sought. In the existing methodologies the crop yield prediction outcomes are based on the past experience data and failed to predict the exact outcomes of the crop yield. Hence, a hybrid approach namely Crop yield prediction by Mestrial Environ Netsual Network (MENN) has been proposed to overcome the challenges in the existing approaches and to predict the crop yield with impeccable manner. In previous techniques, the change in phenotype as well as genes in the seed and the plant pathology are not combined as a new model. Hence, Mestrial Neural Network (MNN) has been proposed which consist of Task allocation layer, Subset-net layer and Integrated yield estimation layer to predict the sowing seed gene along with the phenotype and pathology. Also, incorporated pathology module examines the phenotype of respected sowing seed selected for the prediction of yield value. Moreover, while combining the statistical data and image data for the prediction, the generalization ability of prediction model was affected by reason of the images that shared the same timestamp as the statistical data were eliminated as part of the procedure for creating the dataset utilized in the existing approaches. Hence, a novel, Yield Environ Netsual Network (YENN) has been proposed which is consists of two deep networks; (i) Deep Q network (DQN) and (ii) VGG16 for the generalization ability as well as the elimination of data caused by the same timestamp is rectified. Here, VGG-16 is utilized for processing the given input images. As a result, the proposed model well examine the potential disease based on the gene and environment conditions and effectively predict the yield value of crops.","PeriodicalId":507177,"journal":{"name":"International Journal of Advanced Science and Computer Applications","volume":"21 10","pages":""},"PeriodicalIF":0.0000,"publicationDate":"2024-03-14","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"International Journal of Advanced Science and Computer Applications","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.47679/ijasca.v4i1.59","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"","JCRName":"","Score":null,"Total":0}
引用次数: 0
Abstract
Crop yield prediction methods can roughly predict actual yield, although better yield prediction performance is still sought. In the existing methodologies the crop yield prediction outcomes are based on the past experience data and failed to predict the exact outcomes of the crop yield. Hence, a hybrid approach namely Crop yield prediction by Mestrial Environ Netsual Network (MENN) has been proposed to overcome the challenges in the existing approaches and to predict the crop yield with impeccable manner. In previous techniques, the change in phenotype as well as genes in the seed and the plant pathology are not combined as a new model. Hence, Mestrial Neural Network (MNN) has been proposed which consist of Task allocation layer, Subset-net layer and Integrated yield estimation layer to predict the sowing seed gene along with the phenotype and pathology. Also, incorporated pathology module examines the phenotype of respected sowing seed selected for the prediction of yield value. Moreover, while combining the statistical data and image data for the prediction, the generalization ability of prediction model was affected by reason of the images that shared the same timestamp as the statistical data were eliminated as part of the procedure for creating the dataset utilized in the existing approaches. Hence, a novel, Yield Environ Netsual Network (YENN) has been proposed which is consists of two deep networks; (i) Deep Q network (DQN) and (ii) VGG16 for the generalization ability as well as the elimination of data caused by the same timestamp is rectified. Here, VGG-16 is utilized for processing the given input images. As a result, the proposed model well examine the potential disease based on the gene and environment conditions and effectively predict the yield value of crops.
作物产量预测方法可以大致预测实际产量,但仍在寻求更好的产量预测性能。在现有方法中,作物产量预测结果是基于过去的经验数据,无法预测作物产量的准确结果。因此,人们提出了一种混合方法,即通过 Mestrial Environ Netsual Network(MENN)进行作物产量预测,以克服现有方法所面临的挑战,并以无懈可击的方式预测作物产量。在以往的技术中,种子的表型和基因变化与植物病理学并没有结合成一个新的模型。因此,我们提出了由任务分配层、子集网络层和综合产量估算层组成的 Mestrial 神经网络(MNN),用于预测播种基因以及表型和病理。此外,综合病理学模块还检查了为预测产量值而选择的受尊重播种种子的表型。此外,在结合统计数据和图像数据进行预测时,由于现有方法在创建数据集时剔除了与统计数据具有相同时间戳的图像,从而影响了预测模型的泛化能力。因此,我们提出了一种新颖的 Yield Environ Netsual Network (YENN),它由两个深度网络组成:(i) Deep Q network (DQN) 和 (ii) VGG16。其中,VGG-16 用于处理给定的输入图像。因此,所提出的模型能根据基因和环境条件很好地检测潜在的疾病,并有效地预测作物的产量值。