The Getz Lab
Lab Overview

The Getz lab is focused on cancer genome analysis, which includes (i) somatic events that cause cancer or lead to development of resistance, (ii) germline events that increase the risk for getting cancer, and (iii) using these events to identify subtypes of the disease and their relationship to clinical parameters and/or treatment outcomes. The team is building tools that are part of a robust analytical pipeline to analyze data coming from various national/international collaborative cancer genome projects, and these tools are revolutionizing how we analyze cancer genomes and use them in clinical settings.

Cancer genome analysis in the Getz lab includes two major steps: (i) Characterization – cataloging of all genomic events and the mechanisms that created them during the clonal evolution of the cancer, comparing events at the DNA, RNA and protein levels between tumor and normal samples from an individual patient; and (ii) Interpretation – analysis of the characterization data across a cohort of patients with the aim of identifying the alterations in genes and pathways that cause cancer or increase its risk as well as identifying molecular subtypes of the disease, their markers, and relationship to clinical variables.

Recent Papers
Actionable genetic landscape and dynamics in circulating DNA from 12,827 patients with metastatic breast cancer
Leshchiner I, Medford AJ, Cha J et al. Nature Communications 2026
Published 22 Sep 2026
Follicular Lymphoma Transformation is Characterized by Cytokine-associated Remodeling of Stromal and Macrophage Compartments
Haradhvala NJ, Yiu SPT, Beckmann L et al. Cancer Discovery 2026
Published 04 Aug 2026
Tumor transcriptional state predicts survival in immune-checkpoint-blockade-treated glioblastoma
Ghannam JY, Bryan J, Weiss J, Kovarsky D, Merrell D et al. Nature Cancer 2026
Published 03 Jun 2026
Haplotype-aware segmentation with HapASeg increases accuracy of detecting homolog-specific somatic copy number alterations
Priebe O et al. Genome Biology 2026
Published 14 Feb 2026
Learning cell dynamics with neural differential equations
Vinyard ME et al. Nature Machine Intelligence 2025
Published 18 Dec 2025
Detection of heterogeneous resistance mechanisms to tyrosine kinase inhibitors from cell-free DNA
Parsons HA, Messer C, Santos K, Weiss J et al. Cell Genom. 2025
Published 10 Dec 2025
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