PROJECT SUMMARY
Breast cancer is the most prevalent cancer among U.S. women, accounting for nearly one-third of new cancer
diagnoses in women annually.2. Accurately predicting recurrence and mortality is critical for prognosis,
treatment decisions, and improving patient outcomes. However, current clinical risk models, such as the
Nottingham Index and PREDICT Breast,4,5,23,107 have limitations that hinder precision and clinical utility. More
comprehensive prognostic tools are needed.
Digital pathology imaging offers a promising solution by capturing tumor characteristics beyond human visual
discrimination, including nuclear heterogeneity and chromatin complexity. Recent analytic advancements
suggest that pathology images may capture nuanced tumor structural data beyond the discriminating
capabilities of traditional microscopic evaluation by humans, offering novel parameters for refining risk
prediction. This proposal aims to develop a robust Survivor Model (Aim 2) that merges whole slide image
(WSI) data with traditional clinical prognostic factors to improve survival estimation. This will be complemented
by developing an Explainer Model (Aim 3) to enhance transparency by generating pathologist-interpretable text
descriptions of predictive image features.
Our specific aims are:
AIM 1. Establish benchmarks for predicting recurrence and survival at 5, 10, and 15 years using a clinical
epidemiological model and a deep learning image-based model.
1a) Assess the PREDICT prognostic model107 performance using clinical data.
1b) Retrain and evaluate the SlideGraph neural network model24 using image data.
AIM 2. Develop a new Survivor Model by expanding QuiltNet,25 our team’s vision-language model, to integrate
clinical features and WSI data for recurrence and survival prediction, then compare it against benchmarks from
Aim 1.
AIM 3. Develop an Explainer Model for WSI-based survival models incorporating pathologist feedback.
3a) Create an Explainer Model that interprets survival predictions from both the Survivor Model and another
survival model.
3b) Integrate pathologist feedback to refine predictions.
3c) Validate the Explainer on CALGB and the large, diverse PATHWAYS Study dataset.
This work will generate a clinically actionable risk prediction tool that combines deep learning with pathologist-
informed reasoning, advancing precision oncology and enhancing breast cancer prognosis. By improving risk
stratification and interpretability, this model has the potential to guide treatment decisions, personalize patient
care, and ultimately improve outcomes for individuals with breast cancer.
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- The DCCPS Team.