Prevention and treatment of metastatic disease is one of the most difficult challenges facing cancer treatment. While our knowledge of metastatic disease has grown significantly, precise therapies to intervene early and stop metastasis are not available. The discovery that disseminated cancer cells (DCCs) or even recurrent clones in hematological malignancies can originate very early in cancer evolution and that early or late evolved systemically disseminated clones can enter years- to decades-long periods of dormancy, reshaped our notion of metastasis targeting. For the first time we gained insight into an unexpected biology, that is that cancer pauses its progression, revealing a window of opportunity for early intervention.
To advance this strategy, we must, however, overcome the hurdles of refining our understanding of the basic mechanisms of cancer dormancy and relapse and predicting during remission whom and when will relapse. Given that recurrence is, in general, stochastic in nature, we reasoned that changes in the host might hold the answers to what controls dormancy and reactivation.
The Cancer Dormancy and Tumor Microenvironment Institute (CDTMI) is the first Institute ever created to integrate an orthogonal approach to address the question of how residual cancer dormancy, aging, lifestyle-related perturbations of target organ niches, epigenetics, genetics, and treatments influence relapse across all cancers.
The CDTMI will combine the themes of cancer dormancy and metastasis, evolutionary biology, age-related tissue pathologies like clonal hematopoiesis, adaptive and innate immunity, and adult stem cell quiescence in tissue microenvironments across solid cancer and hematological malignancies.
The CDTMI will also collaborate with other Institutes and Centers of Excellence at Einstein to leverage technological advancements and knowledge across disciplines not immediately obvious to the problem of cancer dormancy and relapse to foster a multidisciplinary and innovative Institute with a transformative impact.
Our vision supports the hypothesis that residual dormant cancer cells persist after therapy and/or populated target organs long before clinical relapse due to early spread. We posit that residual cancer cells are kept dormant by the same homeostatic signals and cell types that instruct adult stem and differentiated cells to maintain orderly repair and restricted growth patterns. We envision that as we age and/or perturb those homeostatic programs in ways that mimic aging-related damage, heterogeneous dormant residual cancer cell sub-populations may become reactivated and form metastases in solid cancer or systemic recurrence in hematological malignancies. The timing of these microenvironment-driven transitions may be further influenced by the transcriptional and/or epi/genetic “maturity” of DCCs. The programs at the CDTMI will solve this puzzle by identifying the host- and residual cancer cell-specific mechanisms that induce and maintain dormancy but, when disrupted, can fuel reactivation.
The CDTMI seeks to take advantage of remarkable technological advances in genome editing, transgenic animal models, proteomics, metabolomics, engineering, intravital and whole-body imaging, single-cell profiling and spatial transcriptomics that allow biological systems to be probed and manipulated with unprecedented resolution. Combining expertise in medical oncology, epidemiology, cell biology, evolutionary biology, aging, immunology, hematopoiesis, engineering, optical subcellular and whole-body imaging, and computational biology along with the patient advocates, optimally positions our multidisciplinary Institute to address this big vision and deliver new biomarkers and therapeutic strategies.