类有机物
诱导多能干细胞
生物
肾单位
计算生物学
细胞生物学
肾
基因
遗传学
胚胎干细胞
作者
Belinda Phipson,Pei X. Er,Alexander N. Combes,Thomas Forbes,Sara E. Howden,Luke Zappia,Hsan-Jan Yen,Kynan T. Lawlor,Lorna J. Hale,Jane Sun,Ernst J. Wolvetang,Minoru Takasato,Alicia Oshlack,Melissa H. Little
出处
期刊:Nature Methods
[Springer Nature]
日期:2018-12-10
卷期号:16 (1): 79-87
被引量:196
标识
DOI:10.1038/s41592-018-0253-2
摘要
The utility of human pluripotent stem cell–derived kidney organoids relies implicitly on the robustness and transferability of the protocol. Here we analyze the sources of transcriptional variation in a specific kidney organoid protocol. Although individual organoids within a differentiation batch showed strong transcriptional correlation, we noted significant variation between experimental batches, particularly in genes associated with temporal maturation. Single-cell profiling revealed shifts in nephron patterning and proportions of component cells. Distinct induced pluripotent stem cell clones showed congruent transcriptional programs, with interexperimental and interclonal variation also strongly associated with nephron patterning. Epithelial cells isolated from organoids aligned with total organoids at the same day of differentiation, again implicating relative maturation as a confounder. This understanding of experimental variation facilitated an optimized analysis of organoid-based disease modeling, thereby increasing the utility of kidney organoids for personalized medicine and functional genomics. A transcriptional analysis of kidney organoids reveals batch effects as the key drivers of variation, mainly through differences in maturity, and provides a list of highly variable genes and a method for estimating differentiation stage for improved disease modeling.
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