Development of a Parallel-Mechanism-Based Robotic Wrist With Remote Center of Motion Capability to Assist Ultrasound Scanning

IF 2.3 Q2 ENGINEERING, ELECTRICAL & ELECTRONIC IEEE journal of radio frequency identification Pub Date : 2024-03-20 DOI:10.1109/JRFID.2024.3379561
Pengcheng Zhang;Zhaokun Deng;Xilong Hou;Shuangyi Wang
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Abstract

In recent years, the combination of ultrasound imaging and robotics has opened up new possibilities, and a flexible and efficient robotic wrist is the key to achieving the implementation of this technology. Equipped with an ultrasound probe, a robotic wrist with remote center of motion (RCM) control can effectively assist physicians in performing ultrasound examinations. In this paper, we present the development of a parallel mechanism-based robotic wrist and illustrate the kinematic solution of the control, which can effectively set different RCM points. For validation, we tested the control accuracy of the prototype using an optical tracking system and the results show that the average absolute translational error is 0.51mm, rotational error is 0.41° and the constraint point error along the axis is 0.57mm. Furthermore, to simulate a realistic environment, an ultrasound image acquisition experiment is designed based on an ultrasound abdominal phantom. The results effectively demonstrate the effectiveness of RCM control for adjusting actual ultrasound images through real image acquisition, demonstrating the usefulness of the method in assisting physicians to perform ultrasound sweeps as well as providing new ways of acquiring diagnostic information.
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开发具有远程运动中心功能的基于平行机械的机器人手腕,以辅助超声波扫描
近年来,超声波成像与机器人技术的结合带来了新的可能性,而灵活高效的机器人手腕则是实现这一技术的关键。配备超声波探头、具有远程运动中心(RCM)控制功能的机器人手腕可以有效地协助医生进行超声波检查。在本文中,我们介绍了基于并联机构的机器人手腕的开发情况,并说明了控制的运动学解决方案,它可以有效地设置不同的 RCM 点。为了进行验证,我们使用光学跟踪系统测试了原型的控制精度,结果表明平均绝对平移误差为 0.51mm,旋转误差为 0.41°,沿轴线的约束点误差为 0.57mm。此外,为了模拟真实环境,还设计了基于超声腹部模型的超声图像采集实验。结果有效证明了 RCM 控制在通过真实图像采集调整实际超声图像方面的有效性,证明了该方法在协助医生进行超声扫查方面的实用性,并为获取诊断信息提供了新的途径。
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