ECTIL: Label-efficient Computational Tumour Infiltrating Lymphocyte (TIL) assessment in breast cancer: Multicentre validation in 2,340 patients with breast cancer

Fuente: arXiv
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Autores principales: Schirris, Yoni, Voorthuis, Rosie, Opdam, Mark, Liefaard, Marte, Sonke, Gabe S, Dackus, Gwen, de Jong, Vincent, Wang, Yuwei, Van Rossum, Annelot, Steenbruggen, Tessa G, Steggink, Lars C, de Vries, Liesbeth G. E., van de Vijver, Marc, Salgado, Roberto, Gavves, Efstratios, van Diest, Paul J, Linn, Sabine C, Teuwen, Jonas, Menezes, Renee, Kok, Marleen, Horlings, Hugo
Formato: Preprint
Publicado: 2025
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author Schirris, Yoni
Voorthuis, Rosie
Opdam, Mark
Liefaard, Marte
Sonke, Gabe S
Dackus, Gwen
de Jong, Vincent
Wang, Yuwei
Van Rossum, Annelot
Steenbruggen, Tessa G
Steggink, Lars C
de Vries, Liesbeth G. E.
van de Vijver, Marc
Salgado, Roberto
Gavves, Efstratios
van Diest, Paul J
Linn, Sabine C
Teuwen, Jonas
Menezes, Renee
Kok, Marleen
Horlings, Hugo
author_facet Schirris, Yoni
Voorthuis, Rosie
Opdam, Mark
Liefaard, Marte
Sonke, Gabe S
Dackus, Gwen
de Jong, Vincent
Wang, Yuwei
Van Rossum, Annelot
Steenbruggen, Tessa G
Steggink, Lars C
de Vries, Liesbeth G. E.
van de Vijver, Marc
Salgado, Roberto
Gavves, Efstratios
van Diest, Paul J
Linn, Sabine C
Teuwen, Jonas
Menezes, Renee
Kok, Marleen
Horlings, Hugo
contents The level of tumour-infiltrating lymphocytes (TILs) is a prognostic factor for patients with (triple-negative) breast cancer (BC). Computational TIL assessment (CTA) has the potential to assist pathologists in this labour-intensive task, but current CTA models rely heavily on many detailed annotations. We propose and validate a fundamentally simpler deep learning based CTA that can be trained in only ten minutes on hundredfold fewer pathologist annotations. We collected whole slide images (WSIs) with TILs scores and clinical data of 2,340 patients with BC from six cohorts including three randomised clinical trials. Morphological features were extracted from whole slide images (WSIs) using a pathology foundation model. Our label-efficient Computational stromal TIL assessment model (ECTIL) directly regresses the TILs score from these features. ECTIL trained on only a few hundred samples (ECTIL-TCGA) showed concordance with the pathologist over five heterogeneous external cohorts (r=0.54-0.74, AUROC=0.80-0.94). Training on all slides of five cohorts (ECTIL-combined) improved results on a held-out test set (r=0.69, AUROC=0.85). Multivariable Cox regression analyses indicated that every 10% increase of ECTIL scores was associated with improved overall survival independent of clinicopathological variables (HR 0.86, p<0.01), similar to the pathologist score (HR 0.87, p<0.001). We demonstrate that ECTIL is highly concordant with an expert pathologist and obtains a similar hazard ratio. ECTIL has a fundamentally simpler design than existing methods and can be trained on orders of magnitude fewer annotations. Such a CTA may be used to pre-screen patients for, e.g., immunotherapy clinical trial inclusion, or as a tool to assist clinicians in the diagnostic work-up of patients with BC. Our model is available under an open source licence (https://github.com/nki-ai/ectil).
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id arxiv_https___arxiv_org_abs_2501_14379
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publishDate 2025
record_format arxiv
spellingShingle ECTIL: Label-efficient Computational Tumour Infiltrating Lymphocyte (TIL) assessment in breast cancer: Multicentre validation in 2,340 patients with breast cancer
Schirris, Yoni
Voorthuis, Rosie
Opdam, Mark
Liefaard, Marte
Sonke, Gabe S
Dackus, Gwen
de Jong, Vincent
Wang, Yuwei
Van Rossum, Annelot
Steenbruggen, Tessa G
Steggink, Lars C
de Vries, Liesbeth G. E.
van de Vijver, Marc
Salgado, Roberto
Gavves, Efstratios
van Diest, Paul J
Linn, Sabine C
Teuwen, Jonas
Menezes, Renee
Kok, Marleen
Horlings, Hugo
Image and Video Processing
Artificial Intelligence
Computer Vision and Pattern Recognition
The level of tumour-infiltrating lymphocytes (TILs) is a prognostic factor for patients with (triple-negative) breast cancer (BC). Computational TIL assessment (CTA) has the potential to assist pathologists in this labour-intensive task, but current CTA models rely heavily on many detailed annotations. We propose and validate a fundamentally simpler deep learning based CTA that can be trained in only ten minutes on hundredfold fewer pathologist annotations. We collected whole slide images (WSIs) with TILs scores and clinical data of 2,340 patients with BC from six cohorts including three randomised clinical trials. Morphological features were extracted from whole slide images (WSIs) using a pathology foundation model. Our label-efficient Computational stromal TIL assessment model (ECTIL) directly regresses the TILs score from these features. ECTIL trained on only a few hundred samples (ECTIL-TCGA) showed concordance with the pathologist over five heterogeneous external cohorts (r=0.54-0.74, AUROC=0.80-0.94). Training on all slides of five cohorts (ECTIL-combined) improved results on a held-out test set (r=0.69, AUROC=0.85). Multivariable Cox regression analyses indicated that every 10% increase of ECTIL scores was associated with improved overall survival independent of clinicopathological variables (HR 0.86, p<0.01), similar to the pathologist score (HR 0.87, p<0.001). We demonstrate that ECTIL is highly concordant with an expert pathologist and obtains a similar hazard ratio. ECTIL has a fundamentally simpler design than existing methods and can be trained on orders of magnitude fewer annotations. Such a CTA may be used to pre-screen patients for, e.g., immunotherapy clinical trial inclusion, or as a tool to assist clinicians in the diagnostic work-up of patients with BC. Our model is available under an open source licence (https://github.com/nki-ai/ectil).
title ECTIL: Label-efficient Computational Tumour Infiltrating Lymphocyte (TIL) assessment in breast cancer: Multicentre validation in 2,340 patients with breast cancer
topic Image and Video Processing
Artificial Intelligence
Computer Vision and Pattern Recognition
url https://arxiv.org/abs/2501.14379