Deep Learning Approach for Renal Cell Carcinoma Detection, Subtyping, And Grading

We propose a comprehensive end-to-end pipeline designed for the detection, subtyping, and grading of tumors. Our proposed methodology initiates the generation of a heat map, indicating the severity of the tumor. Subsequently, the identification of the most critical patches is conducted based on the probability scores. These identified patches are then directed to a grade prediction network. A distinctive aspect of our research lies in being the first to explore an end-to-end pipeline for both heat map generation and grading prediction. Our experiments were conducted leveraging the public, The Cancer Genome Atlas (TCGA) repository, focusing specifically on renal cancer. We introduced additional patch-level labels to improve the model performance. The generation of tumor heat maps targeted three primary cancer subtypes: clear cell, papillary, and chromo-phobe. To enhance our approach, we implemented center-loss and introduced a method aimed at refining the quality of patches. The experimental outcomes highlight superior performance compared to state-of-the-art method. This research contributes to the advancement of tumor detection and grading, emphasizing the significance of an integrated approach for heat map generation and grading prediction.

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Publication Details

Published
2024-09-27
DOI
https://doi.org/10.1109/icip51287.2024.10647236
Citations
4
Primary Topic
AI in cancer detection
Type
article
Field-Weighted Citation Impact
1.39
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article

Deep Learning Approach for Renal Cell Carcinoma Detection, Subtyping, And Grading

Gopal Avinash, Sonit Singh, Abin Jose, Johannes Stegmaier et al.
4 citations
AI in cancer detection
1.39
article

Deep Learning Approach for Renal Cell Carcinoma Detection, Subtyping, And Grading

Gopal Avinash, Sonit Singh, Abin Jose, Johannes Stegmaier, Fatemeh Javadian, Sherin Susheel Mathew, Maroof Abdul Aziz
article en
4 citations

Abstract

We propose a comprehensive end-to-end pipeline designed for the detection, subtyping, and grading of tumors. Our proposed methodology initiates the generation of a heat map, indicating the severity of the tumor. Subsequently, the identification of the most critical patches is conducted based on the probability scores. These identified patches are then directed to a grade prediction network. A distinctive aspect of our research lies in being the first to explore an end-to-end pipeline for both heat map generation and grading prediction. Our experiments were conducted leveraging the public, The Cancer Genome Atlas (TCGA) repository, focusing specifically on renal cancer. We introduced additional patch-level labels to improve the model performance. The generation of tumor heat maps targeted three primary cancer subtypes: clear cell, papillary, and chromo-phobe. To enhance our approach, we implemented center-loss and introduced a method aimed at refining the quality of patches. The experimental outcomes highlight superior performance compared to state-of-the-art method. This research contributes to the advancement of tumor detection and grading, emphasizing the significance of an integrated approach for heat map generation and grading prediction.

UNSW Sydney (AU), RWTH Aachen University (DE)
Openalex Percentile: Top 15%
AI in cancer detection
1.39
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