Neoplastic Immune Mimicry Potentiates Breast Tumor Progression

免疫系统 生物 癌症研究 乳腺癌 细胞瘤 肿瘤转化 癌症 细胞毒性T细胞 免疫学 细胞 癌变 体外 遗传学 生物化学
作者
Eric B. Berens,Sokchea Khou,Elaine Huang,Amber Hoffman,Briana Johnson,Nell Kirchberger,Shamilene Sivagnanam,Nicholas L. Calistri,Daniel S. Derrick,Tiera Liby,Ian C. McLean,Aryn A. Alanizi,Furkan Ozmen,Tugba Y. Ozmen,Gordon B. Mills,E. Shelley Hwang,Pepper Schedin,Hugo González Velozo,Zena Werb,Laura M. Heiser
出处
期刊:Cancer Research [American Association for Cancer Research]
标识
DOI:10.1158/0008-5472.can-25-0985
摘要

Abstract Dedifferentiation programs are commonly enacted during breast cancer progression to enhance tumor cell fitness. Increased cellular plasticity within the neoplastic compartment of tumors correlates with disease aggressiveness, often culminating in greater resistance to cytotoxic therapies or augmented metastatic potential. Here, we found that subpopulations of dedifferentiated neoplastic breast epithelial cells express canonical leukocyte cell surface receptor proteins and have thus named this cellular program “immune mimicry.” Analysis of public human breast tumor single-cell RNA-sequencing datasets and histopathological breast tumor specimens, as well as functional experiments in vitro in breast cancer cell lines and in vivo in murine transgenic and cell line-derived mammary cancer models, showed that neoplastic cells engaged in immune mimicry. Immune-mimicked neoplastic cells harbored hallmarks of dedifferentiation and were enriched in treatment-resistant and high-grade breast tumors. In aggressive breast cancer cell lines, anti-proliferative cytotoxic chemotherapies drove epithelial cells toward immune mimicry. Expression of the CD69 leukocyte activation protein by neoplastic cells conferred a proliferative advantage that facilitated early tumor growth. Together, these findings suggest that neoplastic breast epithelial cells upregulating leukocyte surface receptors potentiate malignancy and that neoplastic immune mimicry has potential clinical utility for patient prognosis and stratification.
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