Authors :
Dr. Aishwarya Jagdale; Dr. Payal Gokhe; Dr. Alisha Warsi; Dr. Yogender Kumar; Dr. Shilpi Kushwaha; Dr. Rahul Sheth
Volume/Issue :
Volume 10 - 2025, Issue 6 - June
Google Scholar :
https://tinyurl.com/bdzkcs8m
DOI :
https://doi.org/10.38124/ijisrt/25jun1069
Note : A published paper may take 4-5 working days from the publication date to appear in PlumX Metrics, Semantic Scholar, and ResearchGate.
Abstract :
Regenerative endodontics represents a transformative approach in managing necrotic or infected pulp in immature
permanent teeth by leveraging the principles of tissue engineering—Stem cells, Scaffolds, and Growth factors. Unlike traditional
apexification or root canal therapy, regenerative endodontic procedures (REPs) aim to biologically restore the pulp–dentin
complex, enabling continued root development and apical closure. This is crucial for immature teeth, which are structurally
vulnerable due to thin dentinal walls and open apices. Case selection is critical for REP success, with ideal candidates being
patients aged 6–17 years with immature permanent teeth, open apices (>1.1 mm), and no significant systemic health
contraindications. Treatment protocols emphasize proper disinfection using low-concentration irrigants and medicaments,
followed by scaffold placement (e.g., blood clot, PRF, or PRP) and coronal sealing with biocompatible materials such as Mineral
trioxide aggregate (MTA).
The regenerative triad’s advancement has led to the development of nanofibrous scaffolds and injectable hydrogels that
mimic the extracellular matrix and support cell proliferation and angiogenesis. Innovations include antibiotic-loaded scaffolds,
CD31+ and CD105+ stem cells, and mobilized DPSCs, all enhancing the clinical potential of REPs. Furthermore, exosomes and
polyelectrolyte multilayer coatings offer novel, cell-free regenerative strategies. Clinically, REPs are particularly valuable in
treating immature necrotic teeth where apexogenesis or apexification is impractical. Although current success rates hover
around 60–70%, ongoing research into scaffold mechanics, stem cell biology, and biomolecular signaling is expected to optimize
outcomes. Regenerative endodontics holds promising implications for preserving tooth vitality, particularly in pediatric
dentistry and trauma-related cases.
Keywords :
Regenerative Endodontics, Revascularization, Cell Homing, Stem cell, Scaffold, Growth Factors.
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Regenerative endodontics represents a transformative approach in managing necrotic or infected pulp in immature
permanent teeth by leveraging the principles of tissue engineering—Stem cells, Scaffolds, and Growth factors. Unlike traditional
apexification or root canal therapy, regenerative endodontic procedures (REPs) aim to biologically restore the pulp–dentin
complex, enabling continued root development and apical closure. This is crucial for immature teeth, which are structurally
vulnerable due to thin dentinal walls and open apices. Case selection is critical for REP success, with ideal candidates being
patients aged 6–17 years with immature permanent teeth, open apices (>1.1 mm), and no significant systemic health
contraindications. Treatment protocols emphasize proper disinfection using low-concentration irrigants and medicaments,
followed by scaffold placement (e.g., blood clot, PRF, or PRP) and coronal sealing with biocompatible materials such as Mineral
trioxide aggregate (MTA).
The regenerative triad’s advancement has led to the development of nanofibrous scaffolds and injectable hydrogels that
mimic the extracellular matrix and support cell proliferation and angiogenesis. Innovations include antibiotic-loaded scaffolds,
CD31+ and CD105+ stem cells, and mobilized DPSCs, all enhancing the clinical potential of REPs. Furthermore, exosomes and
polyelectrolyte multilayer coatings offer novel, cell-free regenerative strategies. Clinically, REPs are particularly valuable in
treating immature necrotic teeth where apexogenesis or apexification is impractical. Although current success rates hover
around 60–70%, ongoing research into scaffold mechanics, stem cell biology, and biomolecular signaling is expected to optimize
outcomes. Regenerative endodontics holds promising implications for preserving tooth vitality, particularly in pediatric
dentistry and trauma-related cases.
Keywords :
Regenerative Endodontics, Revascularization, Cell Homing, Stem cell, Scaffold, Growth Factors.