Robot-assisted femoral stem implantation using an intramedulla gauge

Jong-Ha Chung, S. Ko, D. Kwon, Jung-Ju Lee, Y. Yoon, C. Won
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引用次数: 37

Abstract

This paper presents a gauge-based registration method, a femur-mountable robot for hip arthroplasty named ARTHROBOT, and the surgery procedure using this system. In the gauge-based registration, a reamer-shaped gauge is inserted into the femoral medulla for relative positional information of the femur to the robot. A mounting frame and a minirobot are then mounted on the patient's femur for accurate machining. This gauge-based registration method drastically reduces the processes in preoperative planning by eliminating the need of computer tomography scanning or other image processing methods, compared to other robotic systems that are used for hip surgery. Also, this surgical system reduces damage to the femur because only the metaphyseal region of the femoral canal needs to be machined, while leaving the diaphyseal hard bone untouched. Experiments were performed on 18 composite bones and 12 pig bones. In the composite bone group, orientation (anterversion, varus/valgus and flexion/extension) errors were made at 0.13/spl deg//spl plusmn/0.77/spl deg/, 0.14/spl deg//spl plusmn/0.38/spl deg/, and -0.27/spl deg//spl plusmn/0.33/spl deg/, and the maximum position error was at 1.00 mm. In the pig bone group, orientation errors were made at -0.03/spl deg//spl plusmn/0.65/spl deg/, 0.31/spl plusmn/0.27/spl deg/, and -0.36/spl deg//spl plusmn/0.36/spl deg/, and the maximum position error was at 1.12 mm. Also, 93% of the gaps between the bone and the implant surface were under 0.25 mm. The developed system shows sufficient machining accuracy and precision for clinical application.
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采用髓内计的机器人辅助股骨干植入术
本文介绍了一种基于量规的配准方法,一种可安装在股骨上的髋关节置换术机器人ARTHROBOT,以及该系统的手术流程。在基于量具的配准中,将铰刀形状的量具插入股骨髓中,用于获取股骨与机器人的相对位置信息。然后将安装框架和微型机器人安装在患者的股骨上进行精确加工。与用于髋关节手术的其他机器人系统相比,这种基于量规的配准方法通过消除对计算机断层扫描或其他图像处理方法的需要,大大减少了术前计划过程。此外,该手术系统减少了对股骨的损伤,因为只需要加工股管的干骺端,而不触及干骺端硬骨。对18块复合骨和12块猪骨进行了实验。复合骨组定位误差(前倾、内翻、屈伸)分别为0.13/spl deg//spl plusmn/0.77/spl deg/、0.14/spl plusmn/0.38/spl deg/、-0.27/spl deg//spl plusmn/0.33/spl deg/,最大位置误差为1.00 mm。猪骨组定位误差分别为-0.03/spl deg//spl plusmn/0.65/spl deg/、0.31/spl plusmn/0.27/spl deg/和-0.36/spl deg//spl plusmn/0.36/spl deg/,最大位置误差为1.12 mm。93%的骨与种植体表面间隙小于0.25 mm。所开发的系统具有足够的加工精度和精度,可用于临床应用。
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