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Epithelial migration and non-adhesive periderm are required for digit separation during mammalian development

ABSTRACT: Epithelial migration and non-adhesive periderm are required for digit separation during mammalian development

PROVIDER: PRJNA591652 | ENA |

REPOSITORIES: ENA

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			Action	DRS
	SRR10530426.fastq.gz	Fastqsanger.gz
	SRR10530427.fastq.gz	Fastqsanger.gz
	SRR10530428.fastq.gz	Fastqsanger.gz
	SRR10530429.fastq.gz	Fastqsanger.gz
	SRR10530430.fastq.gz	Fastqsanger.gz

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Epithelial migration and non-adhesive periderm are required for digit separation during mammalian development

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Epithelial Migration and Non-adhesive Periderm Are Required for Digit Separation during Mammalian Development.

Project description:The fusion of digits or toes, syndactyly, can be part of complex syndromes, including van der Woude syndrome. A subset of van der Woude cases is caused by dominant-negative mutations in the epithelial transcription factor Grainyhead like-3 (GRHL3), and Grhl3-/-mice have soft-tissue syndactyly. Although impaired interdigital cell death of mesenchymal cells causes syndactyly in multiple genetic mutants, Grhl3-/- embryos had normal interdigital cell death, suggesting alternative mechanisms for syndactyly. We found that in digit separation, the overlying epidermis forms a migrating interdigital epithelial tongue (IET) when the epithelium invaginates to separate the digits. Normally, the non-adhesive surface periderm allows the IET to bifurcate as the digits separate. In contrast, in Grhl3-/- embryos, the IET moves normally between the digits but fails to bifurcate because of abnormal adhesion of the periderm. Our study identifies epidermal developmental processes required for digit separation.

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Project description:Here, we investigate the origin and nature of blastema cells that regenerate the adult murine digit tip. We show that Pdgfra-expressing mesenchymal cells in uninjured digits establish the regenerative blastema and are essential for regeneration. Single cell profiling shows that the mesenchymal blastema cells are distinct from both uninjured digit and embryonic limb/digit Pdgfra-positive cells. This unique blastema state is environmentally determined; dermal fibroblasts transplanted into the regenerative, but not non-regenerative, digit express blastema markers and contribute to bone regeneration. Moreover, lineage tracing with single cell profiling indicates that endogenous osteoblasts/osteocytes acquire a blastema mesenchymal transcriptional state and contribute to both dermis and bone regeneration. Thus, mammalian digit tip regeneration occurs via a distinct adult mechanism where the regenerative environment promotes acquisition of a unique blastema state that allows cells from tissues like bone to contribute to regeneration of other mesenchymal tissues such as the dermis.

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Project description:Multi-tissue regenerative capacity is lost in adult mammals with the exception of the distal digit, which regenerates via largely-uncharacterized mechanisms. Here, we demonstrate that following adult mouse distal digit removal, nerve-associated Schwann cell precursors (N-SCPs) dedifferentiate and secrete growth factors that promote expansion of the blastema and digit regeneration. Specifically, when N-SCPs were dysregulated or ablated, mesenchymal precursor proliferation in the blastema was decreased, nail and bone regeneration were impaired, and regeneration could be rescued by transplantation of exogenous N-SCPs. We show that N-SCPs secreted factors that promoted self-renewal of mesenchymal precursors, and we used transcriptomic and proteomic analysis to define candidate factors. Two of these, oncostatin M (OSM) and PDGF-AA, were made by N-SCPs in the regenerating digit, and rescued the deficits in regeneration caused by loss of N-SCPs due to denervation. Since nerves innervate every peripheral tissue, these results have broad implications for mammalian tissue repair and regeneration.

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Nerve-derived Schwann cell precursors, acting in a paracrine fashion, are essential for mammalian digit tip regeneration [MOUSE]

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