组织工程
脚手架
生物陶瓷
牙髓(牙)
再生(生物学)
生物医学工程
材料科学
牙科
纳米技术
工程类
医学
生物
细胞生物学
作者
Parisa Noohi,Mohammad J. Abdekhodaie,M. H. Nekoofar,Kerstin M. Galler,P. M. H. Dummer
摘要
Abstract Background Pulp–dentine complex regeneration via tissue engineering is a developing treatment modality that aims to replace necrotic pulps with newly formed healthy tissue inside the root canal. Designing and fabricating an appropriate scaffold is a crucial step in such a treatment. Objectives The present study aimed to review recent advances in the design and fabrication of scaffolds for de novo regeneration of pulp–dentine complexes via tissue engineering approaches. Methods A literature search was conducted using PubMed, Europe PMC, Scopus and Google Scholar databases. To highlight bioengineering techniques for de novo regeneration of pulp–dentine complexes, both in vitro and in vivo studies were included, and clinical studies were excluded. Results In the present review, four main classes of scaffolds used to engineer pulp–dentine complexes, including bioceramic‐based scaffolds, synthetic polymer‐based scaffolds, natural polymer‐based scaffolds and composite scaffolds, are covered. Additionally, recent advances in the design, fabrication and application of such scaffolds are analysed along with their advantages and limitations. Finally, the importance of vascular network establishment in the success of pulp–dentine complex regeneration and strategies used to create scaffolds to address this challenge are discussed. Discussion In the tissue engineering platform, scaffolds provide structural support for cells to adhere and proliferate and also regulate cell differentiation and metabolism. Up to now, considerable progress has been achieved in the field of pulp–dentine complex tissue engineering, and a spectrum of scaffolds ranging from bioceramic‐based to naturally derived scaffolds has been fabricated. However, in designing a suitable scaffold for engineering pulp–dentine complexes, a variety of characteristic parameters related to biological, structural, physical and chemical features should be considered. Conclusion The variety of biomaterials and fabrication techniques provides a great opportunity to address some of the requirements for scaffolds in regenerative endodontics. However, more studies are required to develop an ideal scaffold for use in a clinical setting.
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