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Multi-Input Melanoma Classification Using Mobilenet-V3-Large Architecture Cover

Multi-Input Melanoma Classification Using Mobilenet-V3-Large Architecture

By: Serra Aksoy  
Open Access
|Mar 2025

Figures & Tables

Figure 1.

Three-field plot analysis (AU_UN—ID—AU_CO)

Figure 2.

Co-occurrence network of author keywords

Figure 3.

Proposed model architecture

Figure 4.

Proposed methodology

Figure 5.

Densenet161 loss and accuracy curves

Figure 6.

Convnext_base loss and accuracy curves

Figure 7.

Mobilenet_v3_large loss and accuracy curves

Figure 8.

VGG16 loss and accuracy curves

Figure 9.

Efficientnet_v2_s loss and accuracy curves

Number of tabular and image data taken from SIIM-ISIC Dataset

ClassTotalTrainingTesting
Malignant571461110
Benign579459120
Total1150920320

Performance on the test set

Accuracy(%)Precision(%)Recall(%)F1-Score(%)
Effcientnet_v2_s91.7496.33(B)/87.60(M)87.50(B)/96.36(M)91.70(B)/91.77(M)
Convnext_base77.3982.07(B)/73.38(M)72.50(B)/82.72(M)76.99(B)/77.77(M)
Densenet16198.6997.56(B)/1.00(M)1.00(B)/97.27(M)98.76 (B)/98.61 (M)
Mobilenet_v3_large99.561.00(B)/99.09(M)99.16(B)/1.00(M)99.58(B)/99.54(M)
VGG1687.3985.83(B)/90.83(M)90.83(B)/85.83(M)88.26(B)/88.26(M)

Confusion matrix on the test set

ModelTP (B)TN (M)FNFP
Effcientnet_v2_s105106154
Convnext_base87913319
Densenet16112010703
Mobilenet_v3_large11911010
VGG16109921118

Skin cancer detection methodologies and their respective datasets

ReferenceMethodologyDataset(s)Evaluation Metrics
[22]The preprocessing images and fnetuning convolutional neural networks with transfer learning, with EffcientNet B4 identifed as the top-performing model.HAM10000 datasetF1 Score: 87%, Accuracy: 87.91%
[23]Automated Skin-Melanoma Detection (ASMD) system using image processing and SVM-based classifcation, proposing a Melanoma-Index (MI) for clinical use.DD image datasetAccuracy: 97.50%
[24]Automatic skin cancer diagnosis system including Histogram of Gradients (HG) and Histogram of Lines (HL), combined with other features.HPH dermoscopy database and the Dermoft standard databaseAccuracy: 98.79% (HPH) and 92.96% (the standardDermoft)
[25]Skin cancer detection system utilizing Genetic Programming (GP) for evolving a classifer and feature selection.PH2datasetAccuracy: 97.92%
[26]Image processing and deep learning techniques, including Convolutional Neural Networks (CNNs), for skin cancer detection and classifcation.MNISTHAM10000 datasetWeighted Average Accuracy: 0.88, WeightedAverage Recall: 0.74, Weighted F1-score: 0.77
[27]Classifcation of skin lesions, utilizing dynamic-sized kernels and both ReLU and leakyReLU activation functions.HAM10000 datasetOverall accuracy: 97.85%
[28]Soft-Attention mechanism in deep neural architectures for skin lesion classifcation.HAM10000 dataset and ISIC-2017 datasetPrecision: 93.7% (HAM10000), sensitivity: 91.6% (ISIC-2017)
[29]MobileNetV3 introducing the Improved Artifcial Rabbits Optimizer (IARO) algorithm to enhance feature selectionPH2, ISIC-2016, and HAM10000 datasetsAccuracy: 87.17% (ISIC-2016), 96.79% (PH2 dataset), and 88.71% (HAM10000)
[30]SkinTrans, an improved transformer network, for skin cancer classifcation, utilizing vision transformers (VIT) with self-attention mechanism.HAM10000 and clinical datasetsAccuracy: 94.3% (HAM10000) and 94.1% (Clinical)
DOI: https://doi.org/10.14313/jamris-2025-008 | Journal eISSN: 2080-2145 | Journal ISSN: 1897-8649
Language: English
Page range: 73 - 84
Submitted on: May 24, 2024
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Accepted on: Jul 9, 2024
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Published on: Mar 31, 2025
In partnership with: Paradigm Publishing Services
Publication frequency: 4 issues per year

© 2025 Serra Aksoy, published by Łukasiewicz Research Network – Industrial Research Institute for Automation and Measurements PIAP
This work is licensed under the Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 License.