XB-ART-49322
Mol Cell
2014 Aug 21;554:524-36. doi: 10.1016/j.molcel.2014.06.024.
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Hierarchical molecular events driven by oocyte-specific factors lead to rapid and extensive reprogramming.
Jullien J
,
Miyamoto K
,
Pasque V
,
Allen GE
,
Bradshaw CR
,
Garrett NJ
,
Halley-Stott RP
,
Kimura H
,
Ohsumi K
,
Gurdon JB
.
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Nuclear transfer to oocytes is an efficient way to transcriptionally reprogram somatic nuclei, but its mechanisms remain unclear. Here, we identify a sequence of molecular events that leads to rapid transcriptional reprogramming of somatic nuclei after transplantation to Xenopus oocytes. RNA-seq analyses reveal that reprogramming by oocytes results in a selective switch in transcription toward an oocyte rather than pluripotent type, without requiring new protein synthesis. Time-course analyses at the single-nucleus level show that transcriptional reprogramming is induced in most transplanted nuclei in a highly hierarchical manner. We demonstrate that an extensive exchange of somatic- for oocyte-specific factors mediates reprogramming and leads to robust oocyte RNA polymerase II binding and phosphorylation on transplanted chromatin. Moreover, genome-wide binding of oocyte-specific linker histone B4 supports its role in transcriptional reprogramming. Thus, our study reveals the rapid, abundant, and stepwise loading of oocyte-specific factors onto somatic chromatin as important determinants for successful reprogramming.
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081277 Wellcome Trust , RG44593 Wellcome Trust , RG54943 Wellcome Trust , 092096 Wellcome Trust , 101050 Wellcome Trust , WT101050 Wellcome Trust , WT092096 Wellcome Trust , BBS/B/14647 Biotechnology and Biological Sciences Research Council , Wellcome Trust
Species referenced: Xenopus
Genes referenced: h2bc21 lefty1 myc pou5f3 rbp1 sox2 tbp tbpl2
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