de Kater Esther P, Breedveld Paul, Sakes Aimée
Department of BioMechanical Engineering, Faculty of Mechanical Engineering, Delft University of Technology, Delft, Netherlands.
Front Med Technol. 2025 Apr 9;7:1426858. doi: 10.3389/fmedt.2025.1426858. eCollection 2025.
INTRODUCTION: Orthopedic procedures often require drilling of tunnels through bone, for instance for the introduction of implants. The currently used rigid bone drills make it challenging to reach all target areas without damaging surrounding anatomy. Steerable bone drills are a promising solution as they enable access to larger volumes and the creation of curved tunnels thereby reducing the risk of harm to surrounding anatomical structures. METHOD: This review provides a comprehensive overview of steerable bone drill designs identified in patent literature via the Espacenet database and in scientific literature accessed via the Scopus data base. A Boolean search combined with pre-set inclusion criteria returned 78 literature references describing a variety of drill designs. RESULTS: These drill designs could be categorized based on how the drilling trajectory was defined. Three methods to influence the drilling trajectory were identified: (1) the device (57% of the sources), (2) the environment (15% of the sources): the path is defined based on the tissue interaction forces with the surrounding bone or (3) the user defines the drilling trajectory (28% of the sources). DISCUSSION: The comprehensive overview of steerable drilling methods provides insights in the possibilities in drill design and may be used as a source of inspiration for the design of novel steerable drill designs.
引言:骨科手术常常需要在骨头上钻出通道,例如用于植入物的置入。目前使用的刚性骨钻难以在不损伤周围解剖结构的情况下到达所有目标区域。可转向骨钻是一种很有前景的解决方案,因为它们能够进入更大的区域并创建弯曲的通道,从而降低对周围解剖结构造成伤害的风险。 方法:本综述通过Espacenet数据库对专利文献以及通过Scopus数据库获取的科学文献中所确定的可转向骨钻设计进行了全面概述。布尔搜索结合预设的纳入标准返回了78篇描述各种钻设计的文献参考。 结果:这些钻设计可根据钻孔轨迹的定义方式进行分类。确定了三种影响钻孔轨迹的方法:(1)设备(占资料来源的57%),(2)环境(占资料来源的15%):路径是根据组织与周围骨骼的相互作用力来定义的,或者(3)用户定义钻孔轨迹(占资料来源的28%)。 讨论:可转向钻孔方法的全面概述为钻设计的可能性提供了见解,并可作为新型可转向钻设计的灵感来源。
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