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IL-17 和 TGF-β 与幼稚 CD11c TRAF6-/-髓样树突状细胞衍生破骨细胞前体 (mDDOCp) 的独特串扰可能会激活信号通路,从而导致体内关节炎性骨丢失的破骨细胞生成的另一种途径。

Distinct cross talk of IL-17 & TGF-β with the immature CD11c TRAF6 -null myeloid dendritic cell-derived osteoclast precursor (mDDOCp) may engage signaling toward an alternative pathway of osteoclastogenesis for arthritic bone loss in vivo.

机构信息

Department of Oral Hygiene, Center for Osteo-immunology & Biotechnology Research (COBR), College of Dental Medicine, Kaohsiung Medical University, Kaohsiung, Taiwan.

School of Oral Hygiene & Nursing, and School of Dentistry, Kanagawa Dental University (KDU), Yokosuka, Kanagawa, Japan.

出版信息

Immun Inflamm Dis. 2024 Feb;12(2):e1173. doi: 10.1002/iid3.1173.

DOI:10.1002/iid3.1173
PMID:38415924
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC10851637/
Abstract

BACKGROUND

Dendritic cells (DCs), though borne heterogeneous, are the most potent antigen-presenting cells, whose critical functions include triggering antigen-specific naïve T-cell responses and fine-tuning the innate versus adaptive immunity at the osteo-immune and/or mucosal mesenchyme interface. We previously reported that immature myeloid-CD11c DCs/mDCs may act like osteoclast (OC) precursors (OCp/mDDOCp) capable of developing into functional OCs via an alternative pathway of inflammation-induced osteoclastogenesis; however, what are their contribution and signaling interactions with key osteotropic cytokines (i.e., interleukin-17 [IL-17] and transforming growth factor-β [TGF-β]) to bearing such inflammatory bone loss in vivo remain unclear to date.

METHODS

Herein, we employed mature adult bone marrow-reconstituted C57BL/6 TRAF6 -null chimeras without the classical monocyte/macrophage (Mo/Mϕ)-derived OCs to address their potential contribution to OCp/mDDOCp-mediated osteoclastogenesis in the chicken type-II-collagen (CC-II)-induced joint inflammation versus arthritic bone loss and parallel associations with the double-positive CD11c TRAP TRAF6-null  DC-like OCs detected in vivo via the quantitative dual-immunohistochemistry and digital histomorphometry for analyses.

RESULTS

The resulting findings revealed the unrecognized novel insight that (i) immature myeloid-CD11c TRAF6 TRAP DC-like OCs were involved, co-localized, and strongly associated with joint inflammation and bone loss, independent of the Mo/Mϕ-derived classical OCs, in CC-II-immunized TRAF6 -null chimeras, and (ii) the osteotropic IL-17 may engage distinct crosstalk with CD11c mDCs/mDDOCp before developing the CD11c TRAP TRAF6 OCs via a TGF-β-dependent interaction toward inflammation-induced arthritic bone loss in vivo.

CONCLUSION

These results confirm and substantiate the validity of TRAF6 -null chimeras to address the significance of immature mCD11c TRAP DC-like OCs/mDDOCp subset for an alternative pathway of arthritic bone loss in vivo. Such CD11c mDCs/mDDOCp-associated osteoclastogenesis through the step-wise twist-in-turns osteo-immune cross talks are thereby theme highlighted to depict a summative re-visitation proposed.

摘要

背景

树突状细胞(DCs)尽管具有异质性,但却是最有效的抗原呈递细胞,其关键功能包括触发抗原特异性初始 T 细胞反应,并在骨免疫和/或黏膜间质界面精细调节先天与适应性免疫。我们之前报道过,不成熟的髓样 CD11c DCs/mDCs 可能像破骨细胞(OC)前体(OCp/mDDOCp)一样发挥作用,通过炎症诱导的破骨细胞发生的替代途径发展为功能性 OC;然而,它们在体内发生炎症性骨丢失中的贡献以及与关键成骨细胞因子(即白细胞介素-17 [IL-17]和转化生长因子-β [TGF-β])的信号相互作用尚不清楚。

方法

在此,我们使用成熟的成年骨髓重构成 TRAF6 缺失嵌合体的 C57BL/6 小鼠,没有经典的单核细胞/巨噬细胞(Mo/Mϕ)衍生的 OC,以解决它们在鸡型 II 胶原(CC-II)诱导的关节炎症中对 OCp/mDDOCp 介导的破骨细胞发生的潜在贡献,以及与体内通过定量双重免疫组织化学和数字组织形态计量学检测到的双阳性 CD11cTRAP TRAF6 缺失 DC 样 OC 的平行关联。

结果

研究结果揭示了一个新的未被认识的见解,即(i)不成熟的髓样 CD11cTRAF6TRAP DC 样 OC 参与、共定位,并与 CC-II 免疫的 TRAF6 缺失嵌合体中的关节炎症和骨丢失强烈相关,与 Mo/Mϕ 衍生的经典 OC 无关,以及(ii)成骨细胞因子 IL-17 可能通过 TGF-β 依赖性相互作用与 CD11c mDCs/mDDOCp 发生不同的串扰,然后在体内通过炎症诱导的关节炎性骨丢失发展为 CD11cTRAP TRAF6 OC。

结论

这些结果证实并证实了 TRAF6 缺失嵌合体在解决体内不成熟 mCD11cTRAP DC 样 OC/mDDOCp 亚群对关节炎性骨丢失的替代途径的重要性方面的有效性。因此,通过逐步转折的骨免疫交叉对话,强调了这种 CD11c mDCs/mDDOCp 相关的破骨细胞发生,以描绘提出的综合再访问。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/e897/10851637/d23cb16e9b83/IID3-12-e1173-g003.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/e897/10851637/4d5132549452/IID3-12-e1173-g002.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/e897/10851637/d7a0a6cf63b1/IID3-12-e1173-g006.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/e897/10851637/9b9ced189d68/IID3-12-e1173-g005.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/e897/10851637/df04f059efa9/IID3-12-e1173-g004.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/e897/10851637/d23cb16e9b83/IID3-12-e1173-g003.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/e897/10851637/4d5132549452/IID3-12-e1173-g002.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/e897/10851637/d7a0a6cf63b1/IID3-12-e1173-g006.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/e897/10851637/9b9ced189d68/IID3-12-e1173-g005.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/e897/10851637/df04f059efa9/IID3-12-e1173-g004.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/e897/10851637/d23cb16e9b83/IID3-12-e1173-g003.jpg

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