Trauma and Orthopaedic Department, "Korgialenio-Benakio" Hellenic Red Cross Hospital, Athens, Greece; Trauma and Orthopaedic Department, Ealing Hospital, North West University Healthcare NHS Trust, London, United Kingdom.
Department of Anatomy, School of Medicine, National and Kapodistrian University of Athens, Greece; Trauma and Orthopaedic Department, "Korgialenio-Benakio" Hellenic Red Cross Hospital, Athens, Greece.
J Long Term Eff Med Implants. 2021;31(2):55-69. doi: 10.1615/JLongTermEffMedImplants.2021038059.
For the past three decades, laser use has been investigated, mainly on implant applications, as well as hard and soft tissue processing on orthopedics. However, despite significant technological advances and achievements in Biophotonics, lasers have yet to emerge as a successful tool for hard-tissue manipulation (e.g., osseous tissue). Indeed, a careful search in relevant literature reveals a limited number of laser-based clinical applications in orthopedics, except for the low-level laser therapy applications. In this review article, we give a brief overview of the biophysical mechanisms of bone tissue and biocompatible implants laser surgery and, in parallel, we summarize some specific pre-clinical and clinical laser applications in orthopedics. Taking into consideration the complexity of laser-based applications in inhomogeneous musculoskeletal biostructures and/or implants, it is justified to state that applying laser radiation is still an open field of multidisciplinary research before performing interventions in clinical praxis. The evidence from this study indicates the need for more experimental and theoretical studies regarding light transport on soft and hard tissues, in order to further enhance safe and efficient laser applications in orthopedics. This undoubtedly implies the need for developing modern light delivery devices for laser surgery, by means of implementing robotic guidance, specialized for medical procedures on various anatomic structures. The aforementioned studies could eventually revolutionize the clinical applications of laser technology in orthopedics.
在过去的三十年中,激光的应用已经得到了广泛的研究,主要应用于植入物的应用,以及骨科的硬组织和软组织处理。然而,尽管生物光子学取得了重大的技术进步和成就,激光在硬组织操作(例如骨组织)方面尚未成为一种成功的工具。事实上,在相关文献中进行仔细搜索后发现,激光在骨科中的临床应用数量有限,除了低水平激光疗法的应用之外。在这篇综述文章中,我们简要概述了骨组织和生物相容植入物激光手术的生物物理机制,同时总结了一些特定的骨科临床前和临床激光应用。考虑到激光在非均匀的肌肉骨骼生物结构和/或植入物中的应用的复杂性,在将激光辐射应用于临床实践之前,将其应用于医学领域仍然是一个多学科研究的开放领域。这项研究的证据表明,需要对软组织和硬组织的光传输进行更多的实验和理论研究,以进一步提高激光在骨科中的安全有效应用。这无疑意味着需要开发用于激光手术的现代光传输装置,通过实施机器人引导,专门用于各种解剖结构的医疗程序。上述研究最终可能会彻底改变激光技术在骨科中的临床应用。