基于置信度盒的磁胶囊三维最优移动传感器阵列设计方法

Yangxin Xu, Keyu Li, Ziqi Zhao, M. Meng
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引用次数: 0

摘要

无线胶囊内窥镜是一种无痛的全胃肠道筛查工具,磁定位是一种很有前途的技术,可以跟踪人体肠道中的胶囊。在本文中,我们提出了一种新的最优移动传感器阵列的设计方法来跟踪缓慢移动的胶囊。提出了一种基于网格和组合数学的方法来枚举四层传感器阵列的所有可行的三维布局。通过定位精度评估,从所有布局中选择具有有效定位范围的最优布局。最优布局的有效定位范围为“confidence-box”。在不同噪声水平下不同轨迹的仿真实验表明了该方法的可行性,并验证了基于移动传感器阵列的大规模跟踪的鲁棒性和准确性。运动胶囊的位置和方向跟踪精度分别为1.9mm和1.19°,有效定位深度达到−12.88cm。
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A Design Approach of 3D Optimal Mobile Sensor Array for Confidence-box based Tracking of a Magnetic Capsule
Wireless capsule endoscopy is a painless tool for screening the entire gastrointestinal tract, and magnetic localization is a promising technology for tracking the capsule in the human intestine. In this paper, we propose a novel design approach of the optimal mobile sensor array for tracking the slowly moving capsule. A grid and combinatorial mathematics based method is presented to enumerate all feasible 3D layouts of the four-layer sensor array. The optimal layout with a valid localization range is selected from all layouts by localization accuracy evaluation. The valid localization range of the optimal layout is "confidence-box". Many simulation experiments on different trajectories with different noise levels show the feasibility of our proposed design approach and demonstrate the robustness and accuracy performance of the mobile sensor array based large-scale tracking. The moving capsule can be tracked with the accuracy of 1.9mm and 1.19° in position and orientation, respectively, and the valid localization depth reaches −12.88cm.
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