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An efficient breast cancer classification and segmentation system by an intelligent gated recurrent framework

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Abstract

One of the most cautious diseases that produced an increased death rate around the world is breast cancer. The early detection of this disease can save the lives of people. Therefore, an efficient detection and segmentation model is required to detect and classify cancer cells. Several past studies required more robust features and have gained more complexity because of the irrelevant features. Hence, a novel Buffalo-based Gated recurrent Cancer cell segmentation (BGRCS) has been implemented for segmenting the cancer cell in the oriented breast MRI images. Initially, the noise features were traced and eliminated using the preprocessing function. Moreover, the segmentation and classification function has been executed with dual classes: cancer and non-cancerous images. Consequently, the disease feature has been tracked for the classified cancerous images, and the buffalo function of the system segmented the traced features. It has earned meaningful features and reduced the computational time to train the system. Finally, the performance was valued and compared with other past studies. The designed framework has gained the highest segmentation accuracy over the compared models.

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Data sharing not applicable to this article as no datasets were generated or analyzed during the current study.

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Correspondence to Srikanth Busa.

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Busa, S., Somala, J., Kumar, K.K. et al. An efficient breast cancer classification and segmentation system by an intelligent gated recurrent framework. Multimed Tools Appl 83, 31567–31586 (2024). https://doi.org/10.1007/s11042-023-16826-4

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