The Use of Polymers to Enhance Post-Orthodontic Tooth Stability

• Published in: Polymers 2022-12, Vol.15 (1), p.103
• Main Authors: Rosyida, Niswati Fathmah, Ana, Ika Dewi, Alhasyimi, Ananto Ali
• Format: Article
• Language: English
• Subjects: Adhesives; Angiogenesis; Biomedical engineering; Biomedical materials; Blood platelets; Bones; Carbonates; Carbonation; Controlled release; Cosmetic dentistry; Drug delivery systems; Fibrin; Gelatin; Growth factors; Hydrogels; Hydroxyapatite; Molecular weight; Orthodontics; Patient compliance; Polymer industry; Polymers; Review; Stem cells; Teeth; Tissue engineering
• ISSN: 2073-4360; 2073-4360
• DOI: 10.3390/polym15010103

Relapse after orthodontic treatment occurs at a rate of about 70 to 90%, and this phenomenon is an orthodontic issue that has not yet been resolved. Retention devices are one attempt at prevention, but they require a considerable amount of time. Most orthodontists continue to find it challenging to manage orthodontic relapse; therefore, additional research is required. In line with existing knowledge regarding the biological basis of relapse, biomedical engineering approaches to relapse regulation show promise. With so many possible uses in biomedical engineering, polymeric materials have long been at the forefront of the materials world. Orthodontics is an emerging field, and scientists are paying a great deal of attention to polymers because of their potential applications in this area. In recent years, the controlled release of bisphosphonate risedronate using a topically applied gelatin hydrogel has been demonstrated to be effective in reducing relapse. Simvastatin encapsulation in exosomes generated from periodontal ligament stem cells can promote simvastatin solubility and increase the inhibitory action of orthodontic relapse. Moreover, the local injection of epigallocatechin gallate-modified gelatin suppresses osteoclastogenesis and could be developed as a novel treatment method to modify tooth movement and inhibit orthodontic relapse. Furthermore, the intrasulcular administration of hydrogel carbonated hydroxyapatite-incorporated advanced platelet-rich fibrin has been shown to minimize orthodontic relapse. The objective of this review was to provide an overview of the use of polymer materials to reduce post-orthodontic relapse. We assume that bone remodeling is a crucial factor even though the exact process by which orthodontic correction is lost after retention is not fully known. Delivery of a polymer containing elements that altered osteoclast activity inhibited osteoclastogenesis and blocking orthodontic relapse. The most promising polymeric materials and their potential orthodontic uses for the prevention of orthodontic relapse are also discussed.