Performance efficiency is greatly affected by the choice of model, especially as data complexity increases. Since even minor increases in accuracy can result in better decision-making, where accurate classification is essential for a variety of real-world applications. This study evaluates multiple classification models, including deep Convolutional neural network (CNN), Multilabel classifier, CNN (VGG-Inception), Naïve Bayes, Decision tree, Support vector machine (SVM), and Optimized ant gradient-CNN (OAG-CNN), to compare the efficiency guided by essential metrics as accuracy, precision, sensitivity, F1-score, and computational time. The Apple leaf disease dataset (ALDD) underwent preprocessing approaches such as data augmentation and normalization to enhance training effectiveness. Experimental results indicate that deep learning (DL) models, particularly CNN-based architectures, outperform traditional machine learning (ML) approaches. Among the evaluated models, OAG-CNN obtained the highest accuracy of 98.5% while maintaining the lowest computation time of 2 s, making it a strong candidate for real-time classification tasks. These outcomes provide meaningful findings into enhancing the efficiency and accuracy of DL-based classification, helping to refine model selection and optimization for real-world applications.

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Comparative Analysis of OAG-CNN, Deep CNN, VGG, and Other Models for Enhanced Performance Evaluation

  • Arshleen Kaur

摘要

Performance efficiency is greatly affected by the choice of model, especially as data complexity increases. Since even minor increases in accuracy can result in better decision-making, where accurate classification is essential for a variety of real-world applications. This study evaluates multiple classification models, including deep Convolutional neural network (CNN), Multilabel classifier, CNN (VGG-Inception), Naïve Bayes, Decision tree, Support vector machine (SVM), and Optimized ant gradient-CNN (OAG-CNN), to compare the efficiency guided by essential metrics as accuracy, precision, sensitivity, F1-score, and computational time. The Apple leaf disease dataset (ALDD) underwent preprocessing approaches such as data augmentation and normalization to enhance training effectiveness. Experimental results indicate that deep learning (DL) models, particularly CNN-based architectures, outperform traditional machine learning (ML) approaches. Among the evaluated models, OAG-CNN obtained the highest accuracy of 98.5% while maintaining the lowest computation time of 2 s, making it a strong candidate for real-time classification tasks. These outcomes provide meaningful findings into enhancing the efficiency and accuracy of DL-based classification, helping to refine model selection and optimization for real-world applications.