2022 · 21 citations · 18 references
MedicineOncologyPathologySurgical PathologyTumor PathologyTumor ProgressionBladder CancerCancer DetectionCancer StagingTumor DetectionTumor GradingTumor StagingComputer-aided Tumor DiagnosisComputer-aided Tumor GradingHigh-risk LesionsImage-based Tumor DetectionInfiltrationInvasion Pattern AnalysisMagnificationReproducibility Assessment
Bladder cancer patients’ stratification into risk groups relies on grade, stage and clinical factors. For non-muscle invasive bladder cancer, T1 tumours that invade the subepithelial tissue are high-risk lesions with a high probability to progress into an aggressive muscle-invasive disease. Detecting invasive cancerous areas is the main factor for dictating the treatment strategy for the patient. However, defining invasion is often subject to intra/interobserver variability among pathologists, thus leading to over or undertreatment. Computer-aided diagnosis systems can help pathologists reduce overheads and erratic reproducibility. We propose a multi-scale model that detects invasive cancerous areas patterns across the whole slide image. The model extracts tiles of different tissue types at multiple magnification levels and processes them to predict invasive patterns based on local and regional information for accurate T1 staging. Our proposed method yields an F1 score of 71.9, in controlled settings 74.9, and without infiltration 90.0.
18
Laurens van der Maaten, Geoffrey E. Hinton · Journal of Machine Learning Research · 2008 · 35.7K citations
TensorFlow: A system for large-scale machine learning
Martı́n Abadi, Paul Barham, Jianmin Chen et al. · arXiv (Cornell University) · 2016 · 8.8K citations · Full text
Artificial intelligence and computational pathology
Miao Cui, David Y. Zhang · Laboratory Investigation · 2021 · 523 citations · Full text