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The Wnt Antagonist SFRP1: A Key Regulator of Periodontal Mineral Homeostasis

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Journal Stem Cells Dev
Date 2019 Jun 20
PMID 31215318
Citations 15
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Abstract

The function of mammalian periodontal tissues depends on the presence of a nonmineralized periodontal ligament (PDL) juxtaposed in between mineralized tooth anchorage tissues alveolar bone (AB) and root cementum. In the present study we have hypothesized that the Wnt antagonist secreted frizzled related protein 1 (SFRP1) is an essential regulator of periodontal tissue mineral homeostasis. Our immunoreactions and western blot data demonstrated that SFRP1 was substantially expressed higher in PDL fibroblasts than in surrounding AB progenitors and cementoblasts. SFRP1 was also detected at higher levels in PDL fibroblasts than in dental follicle (DF) cells, but the difference was less pronounced. Preferential H3K4me3 active histone mark enrichment on the promoter and a lack of H3K27me3 repression were most dramatic in PDL progenitors, to a lesser degree in DF cells, and not detected in AB progenitors and cementoblasts. Selective inhibition of SFRP1 using a small molecule inhibitor WAY-316606 demonstrated that SFRP1 block increased PDL cell mineralization and mineralization gene expression such as β-catenin, alkaline phosphatase, osteocalcin, collagen I, and RUNX2. The effect of SFRP1 inhibition on PDL cell mineral homeostasis was confirmed by RNA silencing. These studies also demonstrated that SFRP1 knockdown promotes PDL differentiation through histone H3K4me3-mediated activation of and . Finally, when SFRP1 inhibition and silencing studies were performed using AB progenitors instead of PDL progenitors, there was little effect on mineralized state control and gene expression, with the exception of osteocalcin, which was dramatically upregulated upon SFRP1 silencing. Together, the results of our study document the highly specific role of the Wnt inhibitor SFRP1 in maintaining the nonmineralized state of PDL progenitors.

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