Electromagnetic braking-based collision protection of a novel catheter manipulator

Linshuai Zhang, Shuxiang Guo, Huadong Yu, Shuoxin Gu, Yu Song, Miao Yu
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引用次数: 12

Abstract

A robotically assisted catheterization system can obviously reduce the radiation exposure to the surgeon and lesson the fatigue caused by standing for long time in protective clothing. However, few designs have taken the collision protection function of a catheter manipulator into consideration. Additionally, limited research has been conducted in the damage of the clamping mechanism to the catheter. This paper presents a novel clamping mechanism based on the electromagnetic braking for a catheter manipulator which can be used in the minimally invasive surgery training system. A significant advantage is that the proposed design has the collision protection function which can realize the relative sliding between the catheter and the clamping device so as to avoid the vessel puncture, when the measured force exceeds a certain threshold. In addition, the simulation verification of this function is carried out. The results show that the clamping force of the catheter obviously decreases when the measured force increases. This clamping mechanism provides important insights into the design of safe and reliable robotic catheter manipulators incorporating effective and lossless clamping for intraoperative navigation.
基于电磁制动的新型导管机械臂碰撞保护
机器人辅助置管系统可以明显减少对外科医生的辐射暴露,减轻长时间穿着防护服站立造成的疲劳。然而,很少有设计考虑到导管机械手的碰撞保护功能。此外,关于夹紧机构对导管损伤的研究有限。提出了一种新型的基于电磁制动的导管机械手夹持机构,可用于微创手术训练系统。该设计的一个显著优点是具有碰撞保护功能,当测量力超过一定阈值时,可以实现导管与夹紧装置之间的相对滑动,从而避免血管穿刺。此外,还对该功能进行了仿真验证。结果表明,随测力的增大,导管的夹持力明显减小。这种夹持机制为设计安全可靠的机器人导管操纵器提供了重要的见解,该机器人操作器结合了术中导航的有效和无损夹持。
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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