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Classifying Healthy and Defective Fruits with a Multi-Input Architecture and CNN Models

Luis Chuquimarca, Boris Vintimilla, Sergio Velastin

TL;DR

Results reveal that the inclusion of silhouette images alongside the MultiInput architecture yields models with superior performance compared to using only RGB images for fruit classification, whether healthy or defective.

Abstract

This study presents an investigation into the utilization of a Multi-Input architecture for the classification of fruits (apples and mangoes) into healthy and defective states, employing both RGB and silhouette images. The primary aim is to enhance the accuracy of CNN models. The methodology encompasses image acquisition, preprocessing of datasets, training, and evaluation of two CNN models: MobileNetV2 and VGG16. Results reveal that the inclusion of silhouette images alongside the Multi-Input architecture yields models with superior performance compared to using only RGB images for fruit classification, whether healthy or defective. Specifically, optimal results were achieved using the MobileNetV2 model, achieving 100\% accuracy. This finding suggests the efficacy of this combined methodology in improving the precise classification of healthy or defective fruits, which could have significant implications for applications related to external quality inspection of fruits.

Classifying Healthy and Defective Fruits with a Multi-Input Architecture and CNN Models

TL;DR

Results reveal that the inclusion of silhouette images alongside the MultiInput architecture yields models with superior performance compared to using only RGB images for fruit classification, whether healthy or defective.

Abstract

This study presents an investigation into the utilization of a Multi-Input architecture for the classification of fruits (apples and mangoes) into healthy and defective states, employing both RGB and silhouette images. The primary aim is to enhance the accuracy of CNN models. The methodology encompasses image acquisition, preprocessing of datasets, training, and evaluation of two CNN models: MobileNetV2 and VGG16. Results reveal that the inclusion of silhouette images alongside the Multi-Input architecture yields models with superior performance compared to using only RGB images for fruit classification, whether healthy or defective. Specifically, optimal results were achieved using the MobileNetV2 model, achieving 100\% accuracy. This finding suggests the efficacy of this combined methodology in improving the precise classification of healthy or defective fruits, which could have significant implications for applications related to external quality inspection of fruits.

Paper Structure

This paper contains 10 sections, 11 figures, 2 tables.

Figures (11)

  • Figure 1: Apple silhouette.
  • Figure 2: Apple silhouette.
  • Figure 3: Multi-Input architecture used for healthy and defective fruits classification.
  • Figure 4: Multi-Input architecture:Training/Validation of the MobileNetV2 model with Apples.
  • Figure 5: Multi-Input architecture:Training/Validation of the VGG16 model with Apples.
  • ...and 6 more figures