4.4 Review

Unveiling diversity of stem cells in dental pulp and apical papilla using mouse genetic models: a literature review

Journal

CELL AND TISSUE RESEARCH
Volume 383, Issue 2, Pages 603-616

Publisher

SPRINGER
DOI: 10.1007/s00441-020-03271-0

Keywords

Stem cell; Dental pulp; Mouse genetic models; Dental pulp stem cells; Dental mesenchymal stem cells; Dental pulp stem cell niche

Categories

Funding

  1. National Institutes of Health [DE027421, DE026666]
  2. American Association of Orthodontists Foundation Postdoctoral Research Award

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The dental pulp is a vital non-mineralized connective tissue that houses various dental mesenchymal stem cells, which have potential applications in regenerative therapies. Recent studies using mouse genetic models have shed light on the identities and niches of these stem cells, leading to a better understanding of their roles in maintaining and repairing dental tissues. This new knowledge will be instrumental in developing more effective stem cell-based regenerative therapies for tooth repair in the future.
The dental pulp, a non-mineralized connective tissue uniquely encased within the cavity of the tooth, provides a niche for diverse arrays of dental mesenchymal stem cells. Stem cells in the dental pulp, including dental pulp stem cells (DPSCs), stem cells from human exfoliated deciduous teeth (SHEDs) and stem cells from apical papilla (SCAPs), have been isolated from human tissues with an emphasis on their potential application to regenerative therapies. Recent studies utilizing mouse genetic models shed light on the identities of these mesenchymal progenitor cells derived from neural crest cells (NCCs) in their native conditions, particularly regarding how they contribute to homeostasis and repair of the dental tissue. The current concept is that at least two distinct niches for stem cells exist in the dental pulp, e.g., the perivascular niche and the perineural niche. The precise identities of these stem cells and their niches are now beginning to be unraveled thanks to sophisticated mouse genetic models, which lead to better understanding of the fundamental properties of stem cells in the dental pulp and the apical papilla in humans. The new knowledge will be highly instrumental for developing more effective stem cell-based regenerative therapies to repair teeth in the future.

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