Yapay Zeka Hızlı Bakış & Çıkarımlar
AI InsightIf the number of samples were increased, the SVM would return more precise classification results.
📌 3 Maddede Bu Makale
Özet
The aim of this study was to use a support vector machine (SVM) for the first time as a predictive method for differentiating species of Salix wood through the biometric analysis of their anatomy using wood taken from basal disks of 3 species. The purpose of a SVM is to construct optimal decision boundaries among classes in a decision plane. A decision plane separates a set of objects having different class memberships. In this study, the decision plane has 3 different wood species. Timely and accurate identification of tree species can be crucial in forestry. The similarity of structures in wood anatomy across many species, especially in the case of Salix species, means that they cannot be differentiated anatomically using traditional methods. SVM can be an effective tool for identifying similar taxa with a high percentage of accuracy. A SVM was used to differentiate Salix alba, Salix caprea, and Salix elaeagnos growing in Turkey. These Salix species are sufficiently similar that it is not possible to differentiate between them using traditional anatomical methods. However, a SVM was able to differentiate between the 3 species with a high degree of probability using the biometrics of wood anatomy. For the purposes of classification, a SVM with linear kernel function was designed; it attained an 80.6% success rate in the training group and a 95.2% success rate in the testing group. After feature selection, our SVM was able to classify the 3 species with notable success. If the number of samples were increased, the SVM would return more precise classification results.
Abstract
The aim of this study was to use a support vector machine (SVM) for the first time as a predictive method for differentiating species of Salix wood through the biometric analysis of their anatomy using wood taken from basal disks of 3 species. The purpose of a SVM is to construct optimal decision boundaries among classes in a decision plane. A decision plane separates a set of objects having different class memberships. In this study, the decision plane has 3 different wood species. Timely and accurate identification of tree species can be crucial in forestry. The similarity of structures in wood anatomy across many species, especially in the case of Salix species, means that they cannot be differentiated anatomically using traditional methods. SVM can be an effective tool for identifying similar taxa with a high percentage of accuracy. A SVM was used to differentiate Salix alba, Salix caprea, and Salix elaeagnos growing in Turkey. These Salix species are sufficiently similar that it is not possible to differentiate between them using traditional anatomical methods. However, a SVM was able to differentiate between the 3 species with a high degree of probability using the biometrics of wood anatomy. For the purposes of classification, a SVM with linear kernel function was designed; it attained an 80.6% success rate in the training group and a 95.2% success rate in the testing group. After feature selection, our SVM was able to classify the 3 species with notable success. If the number of samples were increased, the SVM would return more precise classification results.