M. Naheem, Andal Amirthavarshini G, S. A, P. Dumpuri, Manojkumar Lakshmanan, M. Sivaprakasam
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引用次数: 1
摘要
光学跟踪系统广泛应用于微创图像引导手术。这种系统的效率取决于手术工具的精确跟踪。导航系统的优化设置和刀具的标定是影响跟踪精度的主要因素。我们已经开发并实施了定制滤波和校准算法在一个具有成本效益的相机,fusionTrack 500由Atracsys制造。这些内部算法和协议的部署显示出跟踪精度的显着提高。在fusionTrack 500上进行了广泛的验证,并与NDI Polaris Vega(一款工业标准相机)进行了基准测试。采用ASTM模型验证导航系统的跟踪精度。设计了一个基于deldrin的模型来评估目标定位误差。此外,使用3D FARO臂式三坐标测量机进行了体积研究,以评估相机之间的相对位置误差。本文提出的标定方法在Atracsys相机上实现,与原有算法相比,标定精度提高了33.7%。NDI相机的目标配准误差为1.2 mm, Atracsys为0.8 mm,增强了0.4 mm。结合这些算法将使我们能够有效地将具有成本效益的光学跟踪系统集成到图像制导导航系统中。
Optical Tracker Assessment for Image Guided Surgical Interventions
Optical tracking systems are extensively used in minimally invasive image-guided surgeries. The efficiency of such a system depends on the precise tracking of surgical tools. The optimal setup of the navigation system and calibration of the tool are the predominant factors that affect the tracking accuracy. We have developed and implemented customized filtering and calibration algorithms on a cost-effective camera, the fusionTrack 500 manufactured by Atracsys. Deployment of these in-house algorithms and protocols have shown a significant increase in the tracking accuracy. Extensive validations were conducted on fusionTrack 500 and benchmarked against NDI Polaris Vega, an industrial standard camera. ASTM phantom was used to validate the tracking accuracy of the navigation system. A Deldrin-based phantom was designed particularly to evaluate the Target Registration Error. Further, a volumetric study was carried out to assess the relative position error between cameras, using a 3D FARO arm CMM. The proposed calibration method implemented on the Atracsys camera shows a 33.7% improvement in the tracking accuracy compared to its native algorithm. Target Registration Error for NDI camera was observed to be 1.2 mm and Atracsys was 0.8 mm, which depicts a 0.4 mm enhancement. Incorporating these algorithms would allow us to effectively integrate cost-effective optical tracking systems into image-guided navigation systems.