Eliezer Van Allen, MD
Chief, Division of Population Sciences, Associate Professor in Medicine, Harvard Medical School
The advent of genomic profiling has transformed cancer care, enabling clinicians to identify genetic alterations that drive tumor growth and guide targeted therapies. However, the sheer volume and complexity of genomic data present significant challenges. While current clinical interpretation methods focus on “first-order” genomic alterations—such as somatic variants and copy number changes—these approaches often overlook “second-order” molecular features, such as mutational signatures, tumor mutational burden (TMB), and microsatellite instability. These broader features can provide critical insights into therapeutic sensitivity, resistance, and disease prognosis.
Additionally, many patients have tumors that are “variant-negative,” meaning they lack clinically actionable genomic variants. For these patients, traditional genomic interpretation methods may fail to identify treatment options. To address these challenges, there is a pressing need for tools that integrate diverse molecular data, consider higher-order genomic interactions, and provide actionable insights for both clinical care and translational research.
The Molecular Oncology Almanac (MOAlmanac), developed by Eliezer Van Allen, MD, Chief, Division of Population Sciences and the Chandra Nohria Chair for AI in Cancer Research at Dana-Farber, and Brendan Reardon, a computational scientist in the Van Allen lab, is a groundbreaking tool designed to address the limitations of existing genomic interpretation methods. It combines a clinical interpretation algorithm with a curated knowledge base to provide integrative insights into patient-specific molecular profiles.
Currently, users can browse more than 70 cancer types, searching for genomic data from six evidence sources from inferential to FDA-approved, including nearly 180 therapies.
MOAlmanac is not a single entity. Instead, it currently includes a suite of tools, each addressing specific needs in precision oncology:
MOAlmanac has been rigorously benchmarked against first-order interpretation methods in retrospective cohorts, demonstrating its ability to generate additional therapeutic hypotheses. In a prospective precision oncology trial cohort, the tool nominated a median of two therapies per patient and identified therapeutic strategies administered in 47% of cases. These results highlight MOAlmanac’s potential to improve clinical outcomes and advance precision cancer medicine.
Further details:
Primary Paper: “Molecular Oncology Almanac: Integrative Clinical Interpretation of Multimodal Genomic Data” (Nature Cancer, 2021) – This paper describes the methodology and benchmarking of MOAlmanac.
Additional Resources: You can learn more about MOAlmanac at its homepage: https://moalmanac.org/. It is available on GitHub, Docker Hub, and the Broad Institute’s Terra platform.
MOAlmanac represents a significant advancement in precision oncology, offering a comprehensive, integrative approach to genomic interpretation. By combining first-order and second-order molecular features, leveraging preclinical data, and tailoring functionality to global healthcare systems, MOAlmanac addresses critical gaps in cancer care and research. Its open-source accessibility makes it a valuable resource for clinicians, researchers, and commercial entities alike. With its potential to improve patient outcomes and drive innovation, MOAlmanac is poised to play a central role in the future of precision cancer medicine.
Team Members: Eliezer Van Allen, MD, Brendan Reardon, Sabrina Camp, Helena Jun, Maha Shady
MOAlmanac has a wide range of applications in precision oncology:
MOAlmanac is freely accessible for research and nonprofit use, Dana-Farber’s Innovations Office is actively seeking partners to collaborate on the further development and dissemination of MOAlmanac. Interested parties are encouraged to contact the office for more information.
Chief, Division of Population Sciences, Associate Professor in Medicine, Harvard Medical School
Computational Biologist
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