Robotic Bronchoscopy System With Variable-Stiffness Catheter for Pulmonary Lesion Biopsy

IF 3.4 Q2 ENGINEERING, BIOMEDICAL
Xing-Yu Chen;Wenjie Lai;Xiaohui Xiong;Xuemiao Wang;Shi-Mei Wang;Peng Li;Weiyi Han;Yangyang Du;Wenke Duan;Wenjing Du;Soo Jay Phee;Lei Wang
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Abstract

Bronchoscopy is a minimally invasive and effective method for early lung cancer diagnosis. Traditional bronchoscopy faces challenges such as limited dexterity, operator fatigue, and difficulty in maintaining steady manipulation. Existing robot-assisted methods have deficiencies, such as tool instability due to the dynamic respiratory environment. This paper presents a teleoperated robotic bronchoscopy system, featuring a controllable variable-stiffness catheter that enhances stability and flexibility during transbronchial biopsies. The 7 DoF robotic system allows for translation, rotation, and bending of the bronchoscope; delivery and bending of the catheter; delivery and control of biopsy tools; as well as stiffness adjustment of the catheter, which adapts to the dynamic pulmonary environment to provide stable support during tissue sampling. Key contributions include the robotic platform integrated with the variable-stiffness catheter and the implementation of a novel three-stage procedure for tissue sampling. The robotic system has been thoroughly evaluated through a series of tests, including the system accuracy, characterization of the variable-stiffness catheter’s flexibility, force exertion, safety during operation, temperature control, and in-vivo experiment. The results demonstrated the system’s feasibility and effectiveness, with metrics such as safe force limits, system flexibility, and positioning accuracy, showing its potential to improve the accuracy and safety of traditional bronchoscopy procedures.
可变刚度导管机器人支气管镜系统用于肺病变活检
支气管镜检查是一种微创、有效的早期肺癌诊断方法。传统的支气管镜检查面临着灵活性有限、操作人员疲劳和难以维持稳定操作等挑战。现有的机器人辅助方法存在不足,例如由于动态呼吸环境导致工具不稳定。本文介绍了一种远程操作机器人支气管镜检查系统,该系统具有可控制的可变刚度导管,可提高经支气管活检时的稳定性和灵活性。7自由度机器人系统允许支气管镜的平移、旋转和弯曲;导管的输送和弯曲;提供和控制活检工具;以及导管的刚度调整,适应动态肺环境,在组织采样期间提供稳定的支持。主要贡献包括集成可变刚度导管的机器人平台和一种新的三阶段组织采样程序的实施。机器人系统已经通过一系列的测试进行了全面的评估,包括系统的准确性、变刚度导管的灵活性、受力、操作过程中的安全性、温度控制和体内实验。结果证明了该系统的可行性和有效性,包括安全力限制、系统灵活性和定位精度等指标,显示了其提高传统支气管镜手术准确性和安全性的潜力。
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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CiteScore
6.80
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0.00%
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