Biomimetic Scaffolds for Regeneration of Temporomandibular Joint Disc: A Narrative Review.

Hojat Rezazadeh, Nazafarin Samiraninezhad, Mostafa Rezaee
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Abstract

Defects and dysfunctions of temporomandibular joint (TMJ) disc are responsible for the majority of TMJ diseases. Current treatments in this matter are usually short-term and only palliative, thus an alternative treatment that offers long-lasting repair is in great demand. In recent years great attempts have been made to prepare an ideal scaffold, which best resembles the native TMJ disc in characteristics such as mechanical, physical and biological properties. This narrative review focuses on developments of the recent ten years in fabrication of scaffolds using decellularized tissues, natural and synthetic biomaterials for regeneration of TMJ disc and compared their properties. PubMed and Google Scholar databases were searched using the following keywords ("TMJ" OR "temporomandibular joint" OR "TMD" OR "temporomandibular disease") AND ("scaffold" OR "hydrogels"). Randomized controlled trials, randomized clinical trials, case-controls, case reports, and animal studies were included. Comments, systematic reviews, meta-analyses, and non-English papers were excluded. The study concluded that hybrid scaffolds have exhibited favorable cell attachment and proliferation. Synthetic scaffolds have shown promise in providing better control over structural properties; however, additional processes are often required to provide biomimetic cell signaling. While there is still much to learn about the ideal scaffold for TMJ disc regeneration, both natural and synthetic scaffolds have shown promise in achieving the functional, structural, biological, and mechanical properties of a native TMJ disc.

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用于颞下颌关节盘再生的仿生支架:叙述性综述。
颞下颌关节(TMJ)椎间盘的缺陷和功能障碍是造成大多数颞下颌关节疾病的原因。目前的治疗方法通常都是短期的,只能起到缓解作用,因此,人们亟需一种能提供持久修复的替代治疗方法。近年来,人们一直在努力制备一种理想的支架,这种支架在机械、物理和生物特性等方面与原生颞下颌关节椎间盘最为相似。本综述重点介绍了近十年来使用脱细胞组织、天然和合成生物材料制作支架用于颞下颌关节盘再生的发展情况,并对其特性进行了比较。使用以下关键词("TMJ "或 "颞下颌关节 "或 "TMD "或 "颞下颌关节病")和("支架 "或 "水凝胶")在 PubMed 和 Google Scholar 数据库中进行检索。包括随机对照试验、随机临床试验、病例对照、病例报告和动物实验。评论、系统综述、荟萃分析和非英文论文被排除在外。研究认为,混合支架表现出良好的细胞附着和增殖能力。合成支架在更好地控制结构特性方面已显示出前景;然而,要提供仿生细胞信号,通常还需要额外的过程。虽然在颞下颌关节盘再生的理想支架方面还有很多需要学习的地方,但天然支架和合成支架在实现原生颞下颌关节盘的功能、结构、生物和机械特性方面都显示出了前景。
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