| Baylor College of Medicine | Yong Li | Optimizing syngeneic mouse models to target mutant p53 |
| Baylor College of Medicine | Lanlan Shen | Epigenetically engineered mouse model for lung cancer therapy |
| Baylor College of Medicine | Xiang Zhang, Yi Li | Next generation rat models of ER+ breast cancer |
| Beth Israel Deaconess Medical Center | Vassiliki A. Boussiotis, Alain Charest, Roel Verhaak | Understanding the cellular and functional changes in the immune tumor microenvironment of glioblastoma during progression and treatments |
| Brigham and Women's Hospital | Derin B. Keskin, Christopher A. French, Geoffrey I. Shapiro | Genetically engineered mouse model to improve therapy of NUT carcinoma |
| Cedars Sinai Medical Center | Jlenia Guarnerio | Comparative modeling of sarcoma microenvironments for the discovery of biomarkers and tumor vulnerabilities |
| Cold Spring Harbor Laboratory | Lloyd C. Trotman, Scott K. Lyons | Whole body redox maps for metastatic cancer therapy |
| Duke University | Ming Chen | Engineering large chromosomal deletions in mice to advance precision oncology |
| Henry Ford Health and Michigan State University Health Sciences | Jennifer B. Jacob, Benjamin L. Kidder | Defining cancer intervention targets by functional genomics analysis of outbred F1 mice |
| Icahn School of Medicine at Mount Sinai | Daniela Sia, Anna Tocheva | Organoid-immune cell culture modeling of therapeutic responses in cholangiocarcinoma |
| J. David Gladstone Institutes | Karin Pelka | A spatial profiling-based immune hub perturbation platform to improve immunotherapy in colon cancer |
| Jackson Laboratory | Vishnu Hosur | Site-specific integration of large (10-100 kb) DNA constructs into the mouse genome and human induced pluripotent stem cells using the Cas9-Bxb1 integrase toolbox |
| Massachusetts General Hospital | Andrew Liss, Ralph Weissleder | Pancreatic cancer patient-derived xenograft tumors for translational studies in precision medicine |
| Mayo Clinic, Scottsdale | Marta Chesi, Peter L. Bergsagel | Preclinical optimization of BCMA directed T cell therapy |
| MD Anderson Cancer Center | Giannicola Genovese | Investigation of the role of epithelial-mesenchymal plasticity in renal cell carcinoma |
| MD Anderson Cancer Center | Jesse J. Smith | Expansion of tumoroid models for precise treatment of the rectal cancer patient |
| Northwestern University | Priyanka Gopal | Determine genotypic, phenotypic and evolutionary trajectories of treatment resistance to radiotherapy |
| Roswell Park Comprehensive Cancer Center | Qiang Li | Modeling neuroendocrine bladder cancer for studying the pathogenesis and improving chemotherapy responses |
| Tufts Medical Center | Iris Z. Jaffe, Cheryl A. London | Credentialing a cross-species platform to investigate cancer therapy-associated cardiovascular toxicity |
| Tufts University Boston | Heather L. Gardner, Ryan D. Roberts | Validation of a canine cancer model of early genetic detection of treatment failure and directed systemic intervention to improve outcomes in cancer patients |
| Tufts University Boston | Cheryl A. London, Alexander Bick, Elinor Karlsson | Modelling the dynamics of spontaneous clonal hematopoiesis in pet dogs during cancer therapy |
| University of Alabama, Birmingham | Deeann Wallis Schultz, Robert A. Kesterson | Loss of NF1 drives hormone dependent mammary carcinogenesis in a rat model with intact immune system |
| University of Alabama, Birmingham | Christopher R. Miller, Frank Furnari, Donald M. O'Rourke, | Credentialing next-generation human glioma models for precision therapeutics |
| University of California, Davis | Robert B. Rebhun | Clinical, molecular, and immune characterization of naturally occurring osteosarcoma in dogs |
| University of California, Davis | Christine M. Toedebusch | Correlating the clinical and molecular features of canine high-grade glioma for improved translation to human high-grade glioma |
| University of California, Los Angeles | Anthony P. Heaney | Development of 3-dimensional human pituitary corticotroph tumor cultures as a preclinical model for drug discovery |
| University of California, San Diego | Michael Karin | A new mouse model for studying the pathogenesis and immunobiology of intrahepatic cholangiocarcinoma and improving its immunotherapy |
| University of California, San Francisco | Rosemary J. Akhurst, Allan Balmain | A network approach to interrogate cellular plasticity and drug resistance in cancer |
| University of California, San Francisco | Eric Alejandro Sweet Cordero, Olena Morozova Vaske | Development of advanced preclinical models for pediatric solid tumors |
| University of Colorado Denver | Patricia Ernst, Terry J. Fry | Escape from CAR T surveillance through lineage plasticity |
| University of Colorado Denver | Meredith A. Tennis | Modeling lung squamous cell carcinoma premalignancy and prevention |
| University of Florida | Jong H. Kim | Naturally occurring canine hemangiosarcoma as a translational model for angiosarcoma |
| University of Georgia | Shaying Zhao, William Hildebrand | Canine MHC-I genotyping and tumor specific neoantigen determination |
| University of Massachusetts Medical School Worcester | Elinor Karlsson, Cheryl A. London | Leveraging canine spontaneous cancer to optimize the power of blood biopsy |
| University of Massachusetts Medical School Worcester | Wen Xue | In vivo prime editing for precision cancer mouse models |
| University of Michigan | Christina V. Angeles | Preclinical mouse models of liposarcoma for immuno-oncology applications |
| University of Minnesota | Peter M. Gordon, Craig A. Byersdorfer | Development of autologous humanized leukemia models for immunotherapy testing |
| University of Nebraska Medical Center | Michael A. Hollingsworth, Joshua M.V. Mammen | Porcine platforms for technology development in pancreatic cancer |
| University of Pennsylvania | Zev Ari Binder | Development and validation of an autologous mouse model for the study of immune interactions with glioblastoma |
| University of Pennsylvania | Terence P. Gade | Validation and credentialing of patient-derived xenograft models of hepatocellular carcinoma using patient level data |
| University of Pennsylvania | Xiaowei Xu, Meenhard F. Herlyn | Gamma delta T cell based melanoma therapies |
| University of Pittsburgh | Steffi Oesterreich, Adrian V. Lee | Credentialing models of invasive lobular breast cancer for translational research |
| University of Pittsburgh | George C. Tseng, Adrian V. Lee | Single-cell congruence evaluation and selection of cancer models towards precision medicine |
| University of Texas Southwestern Medical Center | Ling Cai | Construction of a lung cancer preclinical model cross-comparison platform |
| University of Texas Southwestern Medical Center | Diego H. Castrillon | Polymerase epsilon-based mouse and derived organoid models of intestinal cancer |
| University of Texas Southwestern Medical Center | Diego H. Castrillon | Polymerase-mediated ultramutagenesis and carcinogenesis in mice |
| University of Utah | Arabella Young | Generation of syngeneic, mutation-driven melanomas in an autoimmune-prone mouse to improve therapeutic efficacy without immunotoxicity |
| University of Wisconsin, Madison | Randall J. Kimple | Improving the translational value of head and neck cancer patient-in-mouse models |
| Washington University in St. Louis | Jeffrey A. Magee, Jeffery M. Klco | Cross-species development and credentialing of pediatric AML models |
| Weill Cornell Medicine | Lukas E. Dow | In vivo base editing for precision oncology models |
| Weill Cornell Medicine | Tan A. Ince | Culture of tumor versus normal cells |
| Weill Cornell Medicine | Dawid G. Nowak | Novel mouse models for quantitative understanding of baseline and therapy-driven evolution of prostate cancer metastasis |