Paridhi Agrawal, M. Chandak, P. Nikhade, Aditya Satyawansingh Patel, Jay Bhopatkar
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Ion implantation has shown promise by increasing wear resistance and cutting efficiency through nitrogen ion incorporation. Thermal nitridation has successfully formed titanium nitride (TiN) coatings, resulting in improved corrosion resistance and cutting efficiency. CT has demonstrated increased cutting efficiency and overall strength by creating a martensite transformation and finer carbide particles. Electropolishing has yielded mixed results, providing smoother surfaces but varying impacts on fatigue resistance. Physical or chemical vapor deposition has proven effective in forming TiN coatings, enhancing hardness and wear resistance. Furthermore, the concept of surface functionalization with silver ions for antibacterial properties has been explored. 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引用次数: 0
摘要
镍钛(NiTi)器械因其卓越的性能、超强的弹性和形状记忆能力,已成为牙髓病学的支柱。然而,意外断裂、切割效率低下和腐蚀等挑战促使研究人员探索创新的表面改性技术,以提高其性能。本综述讨论了镍钛冶金学的最新进展及其对旋转镍钛锉系统的影响。研究人员研究了各种表面处理技术,包括离子注入、低温处理 (CT)、热氮化、电抛光以及物理或化学气相沉积,以尽量减少缺陷、提高表面硬度并改善抗循环疲劳性能。离子注入法通过氮离子的加入提高了耐磨性和切削效率,前景看好。热氮化已成功形成氮化钛(TiN)涂层,从而提高了耐腐蚀性和切割效率。CT 通过产生马氏体转变和更细的碳化物颗粒,提高了切削效率和整体强度。电抛光的结果有好有坏,表面更光滑,但对抗疲劳性的影响各不相同。事实证明,物理或化学气相沉积可有效形成 TiN 涂层,提高硬度和耐磨性。此外,人们还探索了用银离子进行表面功能化以获得抗菌性能的概念。这些进步为牙髓治疗程序带来了令人振奋的未来,为改进镍钛器械的性能、耐用性和患者疗效提供了可能。
Revolutionizing endodontics: Advancements in nickel–titanium instrument surfaces
Nickel–titanium (NiTi) instruments have become the backbone of endodontics due to their exceptional properties, superelasticity, and shape memory. However, challenges such as unexpected breakage, poor cutting efficiency, and corrosion have prompted researchers to explore innovative surface modifications to enhance their performance. This comprehensive review discusses the latest advancements in NiTi metallurgy and their impact on rotary NiTi file systems. Various surface treatment techniques, including ion implantation, cryogenic treatment (CT), thermal nitridation, electropolishing, and physical or chemical vapor deposition, have been investigated to minimize defects, boost surface hardness, and improve cyclic fatigue resistance. Ion implantation has shown promise by increasing wear resistance and cutting efficiency through nitrogen ion incorporation. Thermal nitridation has successfully formed titanium nitride (TiN) coatings, resulting in improved corrosion resistance and cutting efficiency. CT has demonstrated increased cutting efficiency and overall strength by creating a martensite transformation and finer carbide particles. Electropolishing has yielded mixed results, providing smoother surfaces but varying impacts on fatigue resistance. Physical or chemical vapor deposition has proven effective in forming TiN coatings, enhancing hardness and wear resistance. Furthermore, the concept of surface functionalization with silver ions for antibacterial properties has been explored. These advancements present an exciting future for endodontic procedures, offering the potential for enhanced NiTi instruments with improved performance, durability, and patient outcomes.