Augmentation of reality using an operating microscope for otolaryngology and neurosurgical guidance

P.J. Edwards M.S., D.J. Hawkes Ph.D., D.L.G. Hill Ph.D., D. Jewell B.S., R. Spink D.I., A. Strong F.R.C.S, M. Gleeson F.R.C.S
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引用次数: 93

Abstract

The operating microscope is an integral part of many neurosurgery and otolaryngology procedures; the surgeon often uses the microscopic view for a large portion of the operation. Information from preoperative radiological images is often viewed only on X-ray films. The surgeon then has the difficult task of relating this information to the appearance of the surgical view. Image guidance techniques attempt to relate these two sets of information by registering the patient in the operating room to preoperative images using locating devices. Conventionally, image data are presented on a computer monitor, which requires the surgeon to look away from the operative scene. We describe a guidance system, for procedures in which the operating microscope is used, which super-imposes image-derived data upon the operative scene. We create a model of relevant structures (e.g., tumor volume, blood vessels, and nerves) from multimodality preoperative images. By calibrating microscope optics, registering the patient to image coordinates, and tracking the microscope and patient intraoperatively, we can generate stereo projections of the three-dimensional model and project them into the microscope eyepieces, allowing critical structures to be overlaid on the operative scene in the correct position. Measurements with a head phantom gave a root mean square (RMS) error of 1.08 mm, and the estimated error for a human volunteer is between 2 and 3 mm. Initial evaluation in the operating room was very promising. J Image Guid Surg 1:172–178 (1995). © 1996 Wiley-Liss, Inc.

使用手术显微镜增强现实耳鼻喉科和神经外科指导
手术显微镜是许多神经外科和耳鼻喉科手术中不可或缺的一部分;外科医生通常在大部分手术中使用显微镜。术前放射影像的信息通常只能在x光片上看到。然后,外科医生的困难任务是将这些信息与手术视图的外观联系起来。图像引导技术试图将这两组信息联系起来,通过使用定位设备将手术室中的患者与术前图像联系起来。传统上,图像数据是在计算机显示器上显示的,这需要外科医生把目光从手术现场移开。我们描述了一个引导系统,用于操作显微镜的程序,它将图像衍生的数据叠加在操作场景上。我们从多模态术前图像中创建相关结构(例如,肿瘤体积,血管和神经)的模型。通过校准显微镜光学器件,将患者登记到图像坐标,并在术中跟踪显微镜和患者,我们可以生成三维模型的立体投影,并将其投影到显微镜目镜中,从而使关键结构在正确的位置上覆盖在手术场景上。用头部假体测量得出的均方根误差(RMS)为1.08毫米,而人类志愿者的估计误差在2到3毫米之间。手术室的初步评估结果很乐观。[J] .影像导报,1:172-178(1995)。©1996 Wiley-Liss, Inc
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