Six peer-reviewed papers on applying machine learning to cancer biology, immunotherapy prediction, and precision medicine. Published in Nature Communications, npj Precision Oncology, Genome Biology, and Cancer Research.
Developed machine learning algorithms that preserve the underlying biological signal when combining different types of cancer data, enabling more accurate analysis across heterogeneous datasets.
Read paperUsed single-cell spatial proteomics alongside machine learning to predict how advanced melanoma patients respond to immunotherapy. Models correctly predicted treatment response in 11 of 12 patients by analyzing the tumor microenvironment.
Read paperIntroduced a computational approach to estimate protein levels in tissue images, making complex biological analysis more accessible and interpretable for clinical research.
Read paperBuilt a tool that generates synthetic cancer gene expression data to improve machine learning performance on rare cancer subtypes. Trained and validated on over 8,000 cancer samples.
Read paperDeveloped a deep learning strategy to correct for technical differences across cancer drug response datasets, improving the ability to predict how tumors respond to treatment across different experimental systems.
Read paperCreated a pipeline to identify the genetic patterns that distinguish cancer subtypes, demonstrating how data-driven approaches can uncover clinically meaningful differences in tumor biology.
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