Stem Cells from Deciduous Tooth Repair Mandibular Defect in Swine
Penn collection
Degree type
Discipline
Subject
Deciduous tooth
Miniature pig
Stem cell
Tissue engineering MeSH: Animals
Bone Regeneration
Cells
Cultured
Dental Pulp
Disease Models
Animal
Feasibility Studies
Female
Green Fluorescent Proteins
Guided Tissue Regeneration
Mandibular Diseases
Microscopy
Fluorescence
Osteogenesis
Reconstructive Surgical Procedures
Stem Cell Transplantation
Stem Cells
Swine
Swine
Miniature
Tissue Engineering
Tissue Scaffolds
Tomography
X-Ray Computed
Tooth
Deciduous
Transplantation
Autologous EMTREE drug terms: diagnostic agent
green fluorescent protein
tissue scaffold EMTREE medical terms: animal
article
autotransplantation
bone development
bone regeneration
cell culture
computer assisted tomography
cytology
deciduous tooth
disease model
feasibility study
female
fluorescence microscopy
jaw disease
methodology
minipig
physiology
plastic surgery
stem cell
stem cell transplantation
swine
tissue engineering
tissue regeneration
tooth pulp
Dentistry
Endodontics and Endodontology
Oral and Maxillofacial Surgery
Oral Biology and Oral Pathology
Periodontics and Periodontology
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Abstract
Stem cells from human exfoliated deciduous teeth have been identified as a new post-natal stem cell population with multipotential differentiation capabilities, including regeneration of mineralized tissues in vivo. To examine the efficacy of utilizing these stem cells in regenerating orofacial bone defects, we isolated stem cells from miniature pig deciduous teeth and engrafted the critical-size bone defects generated in swine mandible models. Our results indicated that stem cells from miniature pig deciduous teeth, an autologous and easily accessible stem cell source, were able to engraft and regenerate bone to repair critical-size mandibular defects at 6 months post-surgical reconstruction. This pre-clinical study in a large-animal model, specifically swine, allows for testing of a stem cells/scaffold construct in the restoration of orofacial skeletal defects and provides rapid translation of stem-cell-based therapy in orofacial reconstruction in human clinical trials.