ENHANCED BRAIN TUMOR SEGMENTATION WITH SKIP CONNECTED RESNET-18 ENCODER-DECODER FRAME WORK WITH DICE LOSS

The research develops an advanced brain tumor segmentation system that combines a skip connection between ResNet-18 and Dice Loss in an encoder-decoder network. Brain tumor segmentation helps medical imaging specialists find and plan better treatment methods for patients. The proposed method uses ResNet-18 as a base which combines deep architecture with residual connections to prevent vanishing gradient problems. In the technique the model connects the encoder and decoder to keep spatial details that disappear in typical architectures during down sampling steps. The method can better identify hard-to-sector tumor areas because it handles small and nonuniform tissue elements effectively. The model uses Dice Loss as its optimization method to measure how well the predicted tumor outlines match the actual tumor areas. The proposed network proves better tumor segmentation results on its regular brain data collection through testing against older technique approaches. The new model outperforms U-Net by 0.87% in accuracy plus 46.99% in precision along with better F1 scores and Dice coefficients but demonstrates an 0.84% drop in recall. The new method proves better than U-Net by revealing improved performance and segmentation outcomes. The network design efficiently segments challenging areas using its encoder-decoder structure based on ResNet-18 and Dice Loss calculations.

Authors

Publication Details

Journal
International Journal of Apllied Mathematics
Published
2025-09-18
DOI
https://doi.org/10.12732/ijam.v38i2s.112
Primary Topic
Brain Tumor Detection and Classification
Type
article
Field-Weighted Citation Impact
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article

ENHANCED BRAIN TUMOR SEGMENTATION WITH SKIP CONNECTED RESNET-18 ENCODER-DECODER FRAME WORK WITH DICE LOSS

R. Pradeep Kumar Reddy R. Lakshmi Pravallika
International Journal of Apllied Mathematics
Brain Tumor Detection and Classification
article

ENHANCED BRAIN TUMOR SEGMENTATION WITH SKIP CONNECTED RESNET-18 ENCODER-DECODER FRAME WORK WITH DICE LOSS

R. Pradeep Kumar Reddy R. Lakshmi Pravallika
article en

Abstract

The research develops an advanced brain tumor segmentation system that combines a skip connection between ResNet-18 and Dice Loss in an encoder-decoder network. Brain tumor segmentation helps medical imaging specialists find and plan better treatment methods for patients. The proposed method uses ResNet-18 as a base which combines deep architecture with residual connections to prevent vanishing gradient problems. In the technique the model connects the encoder and decoder to keep spatial details that disappear in typical architectures during down sampling steps. The method can better identify hard-to-sector tumor areas because it handles small and nonuniform tissue elements effectively. The model uses Dice Loss as its optimization method to measure how well the predicted tumor outlines match the actual tumor areas. The proposed network proves better tumor segmentation results on its regular brain data collection through testing against older technique approaches. The new model outperforms U-Net by 0.87% in accuracy plus 46.99% in precision along with better F1 scores and Dice coefficients but demonstrates an 0.84% drop in recall. The new method proves better than U-Net by revealing improved performance and segmentation outcomes. The network design efficiently segments challenging areas using its encoder-decoder structure based on ResNet-18 and Dice Loss calculations.

International Journal of Apllied MathematicsVol. 38(2s)
Openalex Percentile: Top 68%
Brain Tumor Detection and Classification
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