Infiltrating Myeloid Cells Drive Osteosarcoma Progression via GRM4 Regulation of IL23

骨肉瘤 髓系细胞 白细胞介素23 癌症研究 髓样 生物 免疫学 炎症 白细胞介素17
作者
Maya Kansara,Kristian Thomson,Puiyi Pang,Aurélie Dutour,Lisa Mirabello,Francine Acher,Jean‐Philippe Pin,Elizabeth G. Demicco,Juming Yan,Michele W.L. Teng,Mark J. Smyth,David M. Thomas
出处
期刊:Cancer Discovery [American Association for Cancer Research]
卷期号:9 (11): 1511-1519 被引量:35
标识
DOI:10.1158/2159-8290.cd-19-0154
摘要

Abstract The glutamate metabotropic receptor 4 (GRM4) locus is linked to susceptibility to human osteosarcoma, through unknown mechanisms. We show that Grm4−/− gene–targeted mice demonstrate accelerated radiation-induced tumor development to an extent comparable with Rb1+/− mice. GRM4 is expressed in myeloid cells, selectively regulating expression of IL23 and the related cytokine IL12. Osteosarcoma-conditioned media induce myeloid cell Il23 expression in a GRM4-dependent fashion, while suppressing the related cytokine Il12. Both human and mouse osteosarcomas express an increased IL23:IL12 ratio, whereas higher IL23 expression is associated with worse survival in humans. Consistent with an oncogenic role, Il23−/− mice are strikingly resistant to osteosarcoma development. Agonists of GRM4 or a neutralizing antibody to IL23 suppressed osteosarcoma growth in mice. These findings identify a novel, druggable myeloid suppressor pathway linking GRM4 to the proinflammatory IL23/IL12 axis. Significance: Few novel systemic therapies targeting osteosarcoma have emerged in the last four decades. Using insights gained from a genome-wide association study and mouse modeling, we show that GRM4 plays a role in driving osteosarcoma via a non–cell-autonomous mechanism regulating IL23, opening new avenues for therapeutic intervention. See related commentary by Jones, p. 1484. This article is highlighted in the In This Issue feature, p. 1469

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