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Series GSE124563 Query DataSets for GSE124563
Status Public on Feb 01, 2019
Title Transcriptome analysis of regeneration in Xenopus laevis twin embryos
Organism Xenopus laevis
Experiment type Expression profiling by high throughput sequencing
Summary Animal embryos have the remarkable property of self-organization. Over 125 years ago Hans Driesch separated the two blastomeres of sea urchin embryos and obtained twins, in what was the foundational experiment of experimental embryology. Since then, embryonic twinning has been obtained experimentally in many animals by diverse methods. In a recent study, we developed bisection methods that generate identical twins reliably from Xenopus blastula embryos. In the present study we investigated the transcriptome of regenerating half-embryos after sagittal and dorsal-ventral (D-V) bisections. Individual embryos were operated at midblastula with an eyelash hair and cultured until early gastrula (stage 10.5) or late gastrula (Stage 12) and analyzed the transcriptome of each half-embryo by RNAseq. Because many genes are activated by wound healing, stringent analyses were used to identify genes upregulated in identical twins but not in either dorsal or ventral fragments. At early gastrula cell division-related genes such as histones were identified, whereas at late gastrula pluripotency genes (such as sox2) and germ layer determining genes (such as eomesodermin, ripply2 and activing receptor ACVRI) and a number of secretory pathway components (serpinH1, fucoleptin and sialyl transferase). These findings are consistent with a model in which cell division is required to heal damage, while maintaining pluripotency to permit formation of the organizer with a displacement of 900 from its original site. In addition, the extensive transcriptomic data presented here (30 RNA-seq libraries of individual whole or regenerating half-embryos) provides a useful resource for data mining gene expression during early vertebrate development.
 
Overall design A genome-wide study of genes that regulate regeneration of twin embryos in Xenopus laevis
 
Contributor(s) Moriyama Y, Sosa EA, Ding Y, De Robertis EM
Citation(s) 31250914
Submission date Jan 02, 2019
Last update date Feb 24, 2020
Contact name Edward M De Robertis
E-mail(s) [email protected]
Organization name HHMI/UCLA
Department Biological chemistry
Lab De Robertis lab
Street address 615 Charles E. Young Drive South
City Los Angeles
State/province CA
ZIP/Postal code 90095
Country USA
 
Platforms (1)
GPL17682 Illumina HiSeq 2000 (Xenopus laevis)
Samples (30)
GSM3536579 Control#1 st10.5
GSM3536580 L. half#1 st10.5
GSM3536581 R. half#1 st10.5
Relations
BioProject PRJNA512511
SRA SRP175030

Download family Format
SOFT formatted family file(s) SOFTHelp
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Series Matrix File(s) TXTHelp

Supplementary file Size Download File type/resource
GSE124563_Supplemental_Table_S1.xlsx.gz 4.5 Mb (ftp)(http) XLSX
GSE124563_Supplemental_Table_S2.xlsx.gz 4.2 Mb (ftp)(http) XLSX
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Raw data are available in SRA
Processed data are available on Series record

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