Aug 2026· Journal of Medical Signals & Sensors· Vol 16· 0 citations· 31 references
Medicine
TL;DR
This study proposes DenseUNet169, a deep learning framework that integrates established DenseNet and UNet for systematic evaluation in breast cancer segmentation that improves gradient flow, facilitates efficient training, and enhances segmentation accuracy by focusing on visually salient regions within histopathological images.
Abstract
Background: Breast cancer remains one of the leading causes of mortality among women worldwide, highlighting the urgent need for accurate and efficient diagnostic tools. Histopathological image analysis plays a critical role in diagnosis by enabling cellularlevel tissue examination. However, manual assessment is often timeconsuming, subjective, and prone to variability, driving the need for automated solutions. Methods: This study proposes DenseUNet169, a deep learning framework that integrates established DenseNet and UNet for systematic evaluation in breast cancer segmentation. The model improves gradient flow, facilitates efficient training, and enhances segmentation accuracy by focusing on visually salient regions within histopathological images. Performance is evaluated using key metrics, including Intersection over Union, Dice Coefficient, Pixel Accuracy, Modified Hausdorff Distance, Surface Dice Overlap, Log Loss, and Jaccard Index. Results: Experiments conducted on a publicly available breast cancer segmentation dataset demonstrate competitive performance compared to alternative backbone configurations. Conclusion: Given the limited dataset size, the results should be interpreted as a proof of concept evaluation of the proposed architectural integration rather than evidence of largescale clinical deployment readiness.
A systematic but innovative two phases transfer learning’sbased deep learning classification framework is developed using popular EfficientNetB7 architecture architecture for breast cancer classification which encompasses formalisation into components like data augmentation, progressive fine-tuning and adaptive learnin...
M. Kavya, G. Thirupati· International Journal of Sci...· 0 citations
The proposed improved U-Net-based deep learning model for image segmentation provides an effective solution for automated, high-precision segmentation of breast ultrasound images, demonstrating considerable potential for clinical translation.
Breast cancer diagnosis from histopathology images is accurate but labor-intensive and subject to interobserver variability. Deep learning has shown strong performance on digital pathology benchmarks; however, limited transparency, magnification variability, and patient-level data leakage can reduce clinical trust and...
Sittichat Mekwan, Buntueng Yana, Ratsada Praphasawat et al.· ECTI Transactions on Compute...· 0 citations
Uterine cancer is one of the most common malignancies in women, and early detection is vital for improving clinical outcomes and enhancing women's well-being. However, subtle tissue variations make manual diagnosis subjective and time-consuming. This study presents a transformer-enhanced deep convolutional neural netwo...
P. Lavanya, M. R, P. Baraneedharan et al.· Microscopy research and tech...· 0 citations
Breast cancer is one of the leading causes of mortality among women worldwide, and early detection is essential to improve survival rates. Among various imaging techniques, thermography is a promising noninvasive, non-ionizing, and cost-effective modality for real-time diagnosis. This study proposes a multilevel thre...
N. A. Samee, Narinder Singh, Mandeep Kaur et al.· Scientific Reports· 0 citations
The proposed framework substantially outperforms finetuned radiology foundation models and prior methods, improving mean AUROC by nearly 8 points and balanced accuracy by 4 points over the strongest baseline, further demonstrating its effectiveness for robust breast cancer classification.
Benjamin Hamm, Y. Kirchhoff, Maximilian R. Rokuss et al.· 0 citations
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