再生(生物学)
基础(医学)
类有机物
上皮
祖细胞
人口
生物
呼吸上皮
细胞生物学
细胞
干细胞
体外
计算生物学
病理
医学
生物技术
生物化学
遗传学
环境卫生
胰岛素
作者
Allison M. Greaney,Taylor Adams,Micha Sam Brickman Raredon,Elise Gubbins,Jonas C. Schupp,Alexander J. Engler,Mahboobe Ghaedi,Yifan Yuan,Naftali Kaminski,Laura E. Niklason
出处
期刊:Cell Reports
[Cell Press]
日期:2020-03-01
卷期号:30 (12): 4250-4265.e6
被引量:49
标识
DOI:10.1016/j.celrep.2020.03.004
摘要
Cell-based therapies have shown promise for treating myriad chronic pulmonary diseases through direct application of epithelial progenitors or by way of engineered tissue grafts or whole organs. To elucidate environmental effects on epithelial regenerative outcomes in vitro, here, we isolate and culture a population of pharmacologically expanded basal cells (peBCs) from rat tracheas. At peak basal marker expression, we simultaneously split peBCs into four in vitro platforms: organoid, air-liquid interface (ALI), engineered trachea, and engineered lung. Following differentiation, these samples are evaluated using single-cell RNA sequencing (scRNA-seq) and computational pipelines are developed to compare samples both globally and at the population level. A sample of native rat tracheal epithelium is also evaluated by scRNA-seq as a control for engineered epithelium. Overall, this work identifies platform-specific effects that support the use of engineered models to achieve the most physiologic differential outcomes in pulmonary epithelial regenerative applications.
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