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评估神经外科机器人系统以制作精确的颅骨钻孔。

Evaluation of a neurosurgical robotic system to make accurate burr holes.

机构信息

Centre of Neuroscience, Department of Neurosurgery, College of Medicine, Dentistry and Nursing, Ninewells Hospital and Medical School, Dundee, Scotland, UK.

出版信息

Int J Med Robot. 2011 Mar;7(1):101-6. doi: 10.1002/rcs.376. Epub 2011 Jan 11.

DOI:10.1002/rcs.376
PMID:21341368
Abstract

INTRODUCTION

Neurosurgery has been driven forward by the latest breakthroughs in technology that combine science and engineering. Neurosurgical robotic systems are a good example of such a breakthrough that has several potential advantages over existing techniques. This study sought to evaluate the Pathfinder robotic system in order to establish whether it is capable of carrying out burr hole procedures in specific locations in human skull replicas, along predetermined trajectories and for precise depths.

METHODS

Three different registration fiducial configurations (A, B and C) were used on three different skull replicas of patients obtained from CT scan reconstructions. The skull replicas were scanned and the PathFinder robotic arm was used to place burr holes along specific trajectories. Target registration accuracies for surface targets and burr hole placements were measured, and the burr hole depths and trajectories were assessed.

RESULTS

Overall registration errors, surface target registration accuracies, and burr hole target registration accuracies were submillimetric in all three registration fiducial configurations. However, the accuracies recorded in configurations B and C were significantly better than those in configuration A.

CONCLUSION

Results demonstrated that the robotic system can approach surface and burr hole targets accurately. The accuracy was altered significantly by the configuration of registration fiducials and the robot was a useful tool to steady the surgical drill to place burr holes in specific locations and depth along the programmed trajectory.

摘要

简介

神经外科学一直以来都受益于将科学和工程相结合的最新技术突破。神经外科机器人系统就是一个很好的例子,它相对于现有技术具有几个潜在的优势。本研究旨在评估 Pathfinder 机器人系统,以确定它是否能够在人体颅骨模型的特定位置、沿着预定轨迹和精确深度进行颅骨钻孔手术。

方法

在从 CT 扫描重建中获得的三个不同患者颅骨模型上使用了三种不同的注册基准配置(A、B 和 C)。对颅骨模型进行扫描,并使用 PathFinder 机器人臂沿着特定轨迹放置颅骨钻孔。测量了表面目标和颅骨钻孔位置的目标注册精度,并评估了颅骨钻孔的深度和轨迹。

结果

在所有三种注册基准配置中,总体注册误差、表面目标注册精度和颅骨钻孔目标注册精度均为亚毫米级。然而,配置 B 和 C 记录的精度明显优于配置 A。

结论

结果表明,机器人系统可以精确接近表面和颅骨钻孔目标。注册基准的配置显著改变了精度,机器人是一种有用的工具,可以稳定手术钻头,以便在特定位置和深度沿着编程轨迹进行颅骨钻孔。

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