A Doppler and B-Mode Hybrid Ultrasound Tracking Method for Microcatheter Navigation in Noisy Environments

Moqiu Zhang, Lidong Yang, Haojin Yang, Lin Su, Li Zhang
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Abstract

Robot-assisted ultrasound imaging provides a promising microrobot tracking method for biomedical tasks. However, noise artifacts such as interfaces or acoustic shadows have a direct influence on localization accuracy. This paper introduces a novel ultrasound tracking method that uses an ultrasound Doppler image-based noise filter and a template matching algorithm to accurately localize the microcatheter in Brightness mode(B-mode) images. We also propose a robot-assisted ultrasound imaging system that can switch between in-plane and out-of-plane tracking and provides 3D localization of the microcatheter in noisy environments. A magnetic microcatheter design that can generate strong Doppler signals and perform drug delivery is also presented. The tracking performance of the proposed system is experimentally verified both in a tissue-mimicking agarose phantom and an ex vivo phantom made of chicken breast. The proposed method can robustly navigate the microcatheter to the desired position in noisy environments. A blood clot clearance experiment is also demonstrated to verify the effectiveness of the microcatheter.
噪声环境下微导管导航的多普勒和b型混合超声跟踪方法
机器人辅助超声成像为生物医学任务提供了一种很有前途的微型机器人跟踪方法。然而,诸如界面或声阴影等噪声伪影对定位精度有直接影响。本文介绍了一种新的超声跟踪方法,利用基于超声多普勒图像的噪声滤波和模板匹配算法在亮度模式(b模式)图像中精确定位微导管。我们还提出了一种机器人辅助超声成像系统,该系统可以在平面内和平面外跟踪之间切换,并在嘈杂环境中提供微导管的三维定位。本文还介绍了一种能够产生强多普勒信号并进行药物输送的磁微导管设计。该系统的跟踪性能在模拟组织琼脂糖模型和鸡胸肉模型中得到了实验验证。该方法可以在噪声环境中鲁棒地将微导管导航到所需位置。血凝块清除实验也证明了微导管的有效性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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