Cell landscape of larval and adult Xenopus laevis at single-cell resolution

Yuan Liao(First Affiliated Hospital Zhejiang University), Lifeng Ma(First Affiliated Hospital Zhejiang University), Qile Guo(Zhejiang University-University of Edinburgh Institute), E Weigao(First Affiliated Hospital Zhejiang University), Xing Fang(First Affiliated Hospital Zhejiang University), Lei Yang(First Affiliated Hospital Zhejiang University), Fanwei Ruan(First Affiliated Hospital Zhejiang University), Jingjing Wang(First Affiliated Hospital Zhejiang University), Peijing Zhang(First Affiliated Hospital Zhejiang University), Zhongyi Sun(First Affiliated Hospital Zhejiang University), Haide Chen(First Affiliated Hospital Zhejiang University), Zhongliang Lin(First Affiliated Hospital Zhejiang University), Xueyi Wang(First Affiliated Hospital Zhejiang University), Xinru Wang(First Affiliated Hospital Zhejiang University), Huiyu Sun(First Affiliated Hospital Zhejiang University), Xiunan Fang(First Affiliated Hospital Zhejiang University), Yincong Zhou(Zhejiang University), Ming Chen(Zhejiang University), Wanhua Shen(Hangzhou Normal University), Guoji Guo(Institute for Stem Cell Biology and Regenerative Medicine), Xiaoping Han(Institute for Stem Cell Biology and Regenerative Medicine)
Nature Communications
July 25, 2022
Cited by 48Open Access
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Abstract

The rapid development of high-throughput single-cell RNA sequencing technology offers a good opportunity to dissect cell heterogeneity of animals. A large number of organism-wide single-cell atlases have been constructed for vertebrates such as Homo sapiens, Macaca fascicularis, Mus musculus and Danio rerio. However, an intermediate taxon that links mammals to vertebrates of more ancient origin is still lacking. Here, we construct the first Xenopus cell landscape to date, including larval and adult organs. Common cell lineage-specific transcription factors have been identified in vertebrates, including fish, amphibians and mammals. The comparison of larval and adult erythrocytes identifies stage-specific hemoglobin subtypes, as well as a common type of cluster containing both larval and adult hemoglobin, mainly at NF59. In addition, cell lineages originating from all three layers exhibits both antigen processing and presentation during metamorphosis, indicating a common regulatory mechanism during metamorphosis. Overall, our study provides a large-scale resource for research on Xenopus metamorphosis and adult organs.


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