Dense Tissue Pattern Characterization Using Deep Neural Network
Breast tumors are from the common infections among women around the world. Classifying the various types of breast tumors contribute to treating breast tumors more efficiently. However, this classification task is often hindered by dense tissue patterns captured in mammograms. The present study has...
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| Main Authors: | , , , , , , |
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| Format: | Article |
| Published: |
Springer
2022
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| Online Access: | https://www.scopus.com/inward/record.uri?eid=2-s2.0-85122651451&doi=10.1007%2fs12559-021-09970-2&partnerID=40&md5=ef87ae3ec660f54b1e86a71a3bdcb925 http://eprints.utp.edu.my/28968/ |
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| Summary: | Breast tumors are from the common infections among women around the world. Classifying the various types of breast tumors contribute to treating breast tumors more efficiently. However, this classification task is often hindered by dense tissue patterns captured in mammograms. The present study has been proposed a dense tissue pattern characterization framework using deep neural network. A total of 322 mammograms belonging to the mini-MIAS dataset and 4880 mammograms from DDSM dataset have been taken, and an ROI of fixed size 224 � 224 pixels from each mammogram has been extracted. In this work, tedious experimentation has been executed using different combinations of training and testing sets using different activation function with AlexNet, ResNet-18 model. Data augmentation has been used to create a similar type of virtual image for proper training of the DL model. After that, the testing set is applied on the trained model to validate the proposed model. During experiments, four different activation functions �sigmoid�, �tanh�, �ReLu�, and �leakyReLu� are used, and the outcome for each function has been reported. It has been found that activation function �ReLu� perform always outstanding with respect to others. For each experiment, classification accuracy and kappa coefficient have been computed. The obtained accuracy and kappa value for MIAS dataset using ResNet-18 model is 91.3 and 0.803, respectively. For DDSM dataset, the accuracy of 92.3 and kappa coefficient value of 0.846 are achieved. After the combination of both dataset images, the achieved accuracy is 91.9, and kappa coefficient value is 0.839 using ResNet-18 model. Finally, it has been concluded that the ResNet-18 model and ReLu activation function yield outstanding performance for the task. © 2022, The Author(s). |
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