间质细胞
生物
再生(生物学)
重编程
干细胞
细胞生物学
基质
骨形态发生蛋白
刺猬
癌症研究
病理
转录组
福克斯A1
刺猬信号通路
医学
癌症
细胞
基因表达
免疫组织化学
免疫学
基因
遗传学
信号转导
乳腺癌
作者
Eunjee Kim,Seoyoung Choi,Byunghee Kang,JungHo Kong,Yubin Kim,Woong Yoon,Hwa-Rim Lee,Sung Eun Kim,Hyo‐Min Kim,Hye Sun Lee,Chorong Yang,You Jeong Lee,Minyong Kang,Tae‐Young Roh,Sungjune Jung,Sanguk Kim,Ja Hyeon Ku,Kunyoo Shin
出处
期刊:Nature
[Springer Nature]
日期:2020-12-16
卷期号:588 (7839): 664-669
被引量:162
标识
DOI:10.1038/s41586-020-3034-x
摘要
Current organoid models are limited by their inability to mimic mature organ architecture and associated tissue microenvironments1,2. Here we create multilayer bladder ‘assembloids’ by reconstituting tissue stem cells with stromal components to represent an organized architecture with an epithelium surrounding stroma and an outer muscle layer. These assembloids exhibit characteristics of mature adult bladders in cell composition and gene expression at the single-cell transcriptome level, and recapitulate in vivo tissue dynamics of regenerative responses to injury. We also develop malignant counterpart tumour assembloids to recapitulate the in vivo pathophysiological features of urothelial carcinoma. Using the genetically manipulated tumour-assembloid platform, we identify tumoural FOXA1, induced by stromal bone morphogenetic protein (BMP), as a master pioneer factor that drives enhancer reprogramming for the determination of tumour phenotype, suggesting the importance of the FOXA1–BMP–hedgehog signalling feedback axis between tumour and stroma in the control of tumour plasticity. Multilayer 3D reconstitution of bladder stem cells with stromal cells enables recapitulation of the architecture and molecular functions of bladder tissue.
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