<p>Deep learning methods for image segmentation and classification in histopathology generally utilize supervised learning, relying on manually created labels for model development. Here, we applied a self-supervised framework to characterize kidney histology without the use of pathologist annotations, training on whole slide images to identify histomorphological phenotype clusters (HPCs) and create slide-level vector representations. HPCs developed in the training set were visually consistent when transferred to five diverse internal and external validation sets (1,421 WSIs in total). Specific HPCs were reproducibly associated with slide-level pathologist quantifications, such as interstitial fibrosis (AUC = 0.83). Additionally, hierarchical clustering of tissue patterns revealed patient groups related to kidney function and genotype, and specific HPCs predicted longitudinal kidney function decline. Overall, we demonstrated the translational application of a self-supervised framework to summarize distinct kidney tissue patterns with phenotypic and prognostic relevance.</p>

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Unbiased self supervised learning of kidney histology reveals phenotypic and prognostic insights

  • Krutika Pandit,
  • Nicolas Coudray,
  • Adalberto Claudio Quiros,
  • Aditya Surapaneni,
  • Dhairya Upadhyay,
  • Rami Sesha Vanguri,
  • Daigoro Hirohama,
  • Samer Mohandes,
  • Pascal Schlosser,
  • Heather Thiessen-Philbrook,
  • Yumeng Wen,
  • Chirag R. Parikh,
  • Eugene P. Rhee,
  • Sushrut S. Waikar,
  • Insa Schmidt,
  • Avi Z. Rosenberg,
  • Matthew B. Palmer,
  • Katalin Susztak,
  • Morgan E. Grams,
  • Aristotelis Tsirigos,
  • Manisha Singh,
  • Michael Ross,
  • James Tumlin,
  • Kirk Campbell,
  • Amy Mottl,
  • Christos Argyropoulos,
  • Tamara Isakova,
  • Salem Almaani,
  • Rupali Avasare,
  • Richard Lafayette,
  • Julia Scialla,
  • Randy Luciano,
  • Shweta Bansal,
  • Frank Brosius,
  • Ankit Mehta,
  • Oliver Lenz,
  • Nelson Kopyt,
  • Piettro Canetta,
  • Matthias Kretzler,
  • Jeffrey Schelling

摘要

Deep learning methods for image segmentation and classification in histopathology generally utilize supervised learning, relying on manually created labels for model development. Here, we applied a self-supervised framework to characterize kidney histology without the use of pathologist annotations, training on whole slide images to identify histomorphological phenotype clusters (HPCs) and create slide-level vector representations. HPCs developed in the training set were visually consistent when transferred to five diverse internal and external validation sets (1,421 WSIs in total). Specific HPCs were reproducibly associated with slide-level pathologist quantifications, such as interstitial fibrosis (AUC = 0.83). Additionally, hierarchical clustering of tissue patterns revealed patient groups related to kidney function and genotype, and specific HPCs predicted longitudinal kidney function decline. Overall, we demonstrated the translational application of a self-supervised framework to summarize distinct kidney tissue patterns with phenotypic and prognostic relevance.