Malik Abrar, Rouf Saquib, Ul Haq Mir Irfan, Raina Ankush, Valerga Puerta Ana Pilar, Sagbas Binnur, Ruggiero Alessandro
School of Mechanical Engineering, Shri Mata Vaishno Devi University, Jammu and Kashmir, 182320, India.
Departamento de Ingeniería Mecánica y Diseño Industrial, Universidad de Cádiz, Spain.
J Orthop. 2022 Aug 10;34:49-60. doi: 10.1016/j.jor.2022.08.006. eCollection 2022 Nov-Dec.
Additive manufacturing (AM) being an integral component of the production offers a wide variety of applications in the production of different components. The medical industry after the introduction of Additive Manufacturing has resulted in several advancements. The production of intricate patient-specific implants is one of such advancements which greatly assist a surgeon during a surgery. Orthopedic implants apart from possessing good mechanical strength are also expected to exhibit good tribological and corrosion behavior. As a result, the development of various orthopaedic implants and tools has become simple with the use of additive manufacturing.
In the current paper an effort has been made to discuss actual scientific knowledge on the tribo-corrosive behavior of additive manufactured parts for orthopedic applications. Different studies dealing with the mechanisms of lubrication and friction in synovial joints have also been considered. A special focus has also been laid down to study the corrosive effect of implants on the human body. A section dedicated to texturing of orthopedic implants has also been provided. The paper further elaborates the different research challenges and issues related to the use of additive manufacturing for the production of optimized orthopedic implants.
The study revealed that additive manufacturing has greatly aided in the manufacture of different orthopaedic implants with enhanced properties. However, a detailed study of the effect of processes like friction, wear, lubrication and corrosion in these implants needs to be done. The performance of these implants in the presence of various synovial fluids also needs to be addressed. However, the lack of more biocompatible materials, scalability and cost issues hinder the widespread use of AM in the different orthopaedic applications.
增材制造作为生产的一个重要组成部分,在不同部件的生产中有着广泛的应用。增材制造引入医疗行业后带来了多项进步。生产复杂的个性化植入物就是其中一项进步,这在手术过程中极大地帮助了外科医生。除了具备良好的机械强度外,骨科植入物还应表现出良好的摩擦学和耐腐蚀性能。因此,利用增材制造使得各种骨科植入物和工具的开发变得简单。
在本文中,我们努力探讨关于增材制造的骨科应用部件的摩擦腐蚀行为的实际科学知识。还考虑了不同的关于滑膜关节润滑和摩擦机制的研究。也特别关注研究植入物对人体的腐蚀作用。还提供了一个专门论述骨科植入物纹理化的部分。本文进一步阐述了与使用增材制造生产优化的骨科植入物相关的不同研究挑战和问题。
研究表明,增材制造极大地有助于制造具有增强性能的不同骨科植入物。然而,需要对这些植入物中的摩擦、磨损、润滑和腐蚀等过程的影响进行详细研究。还需要解决这些植入物在各种滑液存在下的性能问题。然而,缺乏更多生物相容性材料、可扩展性和成本问题阻碍了增材制造在不同骨科应用中的广泛使用。