Msx2 Supports Epidermal Competency during Wound-Induced Hair Follicle Neogenesis

Cutaneous wounds in adult mammals typically heal by scarring. However, large full-thickness wounds undergo wound-induced hair follicle neogenesis (WIHN), a form of regeneration. Here, we show that WIHN requires transient expression of epidermal Msx2 in two phases: the wound margin early and the woun...

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Veröffentlicht in:Journal of investigative dermatology 2018-09, Vol.138 (9), p.2041-2050
Hauptverfasser: Hughes, Michael W., Jiang, Ting-Xin, Plikus, Maksim V., Guerrero-Juarez, Christian Fernando, Lin, Chien-Hong, Schafer, Christopher, Maxson, Robert, Widelitz, Randall B., Chuong, Cheng-Ming
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container_end_page 2050
container_issue 9
container_start_page 2041
container_title Journal of investigative dermatology
container_volume 138
creator Hughes, Michael W.
Jiang, Ting-Xin
Plikus, Maksim V.
Guerrero-Juarez, Christian Fernando
Lin, Chien-Hong
Schafer, Christopher
Maxson, Robert
Widelitz, Randall B.
Chuong, Cheng-Ming
description Cutaneous wounds in adult mammals typically heal by scarring. However, large full-thickness wounds undergo wound-induced hair follicle neogenesis (WIHN), a form of regeneration. Here, we show that WIHN requires transient expression of epidermal Msx2 in two phases: the wound margin early and the wound center late. Msx2 expression is present in the migrating epithelium during early wound healing and then presents in the epithelium and mesenchyme later in the wound center. WIHN is abrogated in germline and epithelial-specific Msx2 mutant mice. Unlike the full-length Msx2 promoter, a minimal Msx2 promoter fails activation in the wound center, suggesting complex regulation of Msx2 expression. The Msx2 promoter binding sites include Tcf/Lef, Jun/Creb, Pax3, and three SMAD sites. However, basal epithelial-induced BMP suppression by noggin overexpression did not affect WIHN. We propose that Msx2 signaling is required for the epidermis to acquire spatiotemporal competence during WIHN. Topologically, hair regeneration dominates in the wound center, coinciding with late Msx2 expression. Together, these results suggest that intrinsic Msx2 expression supports epithelial competency during hair follicle neogenesis. This work provides insight into endogenous mechanisms modulating competency of adult epidermal progenitors for mammalian ectodermal appendage neogenesis, and offers the target Msx2 for future regeneration-promoting therapies.
doi_str_mv 10.1016/j.jid.2018.02.043
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However, large full-thickness wounds undergo wound-induced hair follicle neogenesis (WIHN), a form of regeneration. Here, we show that WIHN requires transient expression of epidermal Msx2 in two phases: the wound margin early and the wound center late. Msx2 expression is present in the migrating epithelium during early wound healing and then presents in the epithelium and mesenchyme later in the wound center. WIHN is abrogated in germline and epithelial-specific Msx2 mutant mice. Unlike the full-length Msx2 promoter, a minimal Msx2 promoter fails activation in the wound center, suggesting complex regulation of Msx2 expression. The Msx2 promoter binding sites include Tcf/Lef, Jun/Creb, Pax3, and three SMAD sites. However, basal epithelial-induced BMP suppression by noggin overexpression did not affect WIHN. We propose that Msx2 signaling is required for the epidermis to acquire spatiotemporal competence during WIHN. Topologically, hair regeneration dominates in the wound center, coinciding with late Msx2 expression. Together, these results suggest that intrinsic Msx2 expression supports epithelial competency during hair follicle neogenesis. 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subjects Animals
Disease Models, Animal
Gene Expression Regulation
Hair Follicle - metabolism
Hair Follicle - pathology
Homeodomain Proteins - biosynthesis
Homeodomain Proteins - genetics
Mice, Inbred C57BL
Mice, SCID
Regeneration - physiology
RNA - genetics
Signal Transduction
Skin - injuries
Skin - metabolism
Skin - pathology
Wound Healing - genetics
Wounds and Injuries - complications
Wounds and Injuries - genetics
Wounds and Injuries - metabolism
title Msx2 Supports Epidermal Competency during Wound-Induced Hair Follicle Neogenesis
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