Towards Bimanual Vein Cannulation: Preliminary Study of a Bimanual Robotic System With a Dual Force Constraint Controller.

Changyan He, Ali Ebrahimi, Emily Yang, Muller Urias, Yang Yang, Peter Gehlbach, Iulian Iordachita
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引用次数: 2

Abstract

Retinal vein cannulation is a promising approach for treating retinal vein occlusion that involves injecting medicine into the occluded vessel to dissolve the clot. The approach remains largely unexploited clinically due to surgeon limitations in detecting interaction forces between surgical tools and retinal tissue. In this paper, a dual force constraint controller for robot-assisted retinal surgery was presented to keep the tool-to-vessel forces and tool-to-sclera forces below prescribed thresholds. A cannulation tool and forceps with dual force-sensing capability were developed and used to measure force information fed into the robot controller, which was implemented on existing Steady Hand Eye Robot platforms. The robotic system facilitates retinal vein cannulation by allowing a user to grasp the target vessel with the forceps and then enter the vessel with the cannula. The system was evaluated on an eye phantom. The results showed that, while the eyeball was subjected to rotational disturbances, the proposed controller actuates the robotic manipulators to maintain the average tool-to-vessel force at 10.9 mN and 13.1 mN and the average tool-to-sclera force at 38.1 mN and 41.2 mN for the cannula and the forcpes, respectively. Such small tool-to-tissue forces are acceptable to avoid retinal tissue injury. Additionally, two clinicians participated in a preliminary user study of the bimanual cannulation demonstrating that the operation time and tool-to-tissue forces are significantly decreased when using the bimanual robotic system as compared to freehand performance.

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面向双手静脉插管:双力约束双手机器人系统的初步研究。
视网膜静脉插管是治疗视网膜静脉阻塞的一种很有前途的方法,它包括向闭塞的血管注射药物以溶解血栓。由于外科医生在检测手术工具和视网膜组织之间的相互作用力方面的局限性,该方法在临床上仍未得到充分利用。本文提出了一种用于机器人辅助视网膜手术的双力约束控制器,以保持工具对血管的力和工具对巩膜的力低于规定的阈值。开发了一种具有双力感应能力的插管工具和镊子,用于测量输入到机器人控制器的力信息,并在现有的稳态手眼机器人平台上实现。机器人系统通过允许用户用镊子抓住目标血管,然后用套管进入血管,从而促进视网膜静脉插管。该系统在眼幻影上进行了评估。结果表明,当眼球受到旋转干扰时,所提出的控制器驱动机器人操作器使套管和力分别保持工具对血管的平均力为10.9 mN和13.1 mN,工具对巩膜的平均力为38.1 mN和41.2 mN。这样小的工具到组织的力是可以接受的,以避免视网膜组织损伤。此外,两名临床医生参与了对双手插管的初步用户研究,表明与徒手操作相比,使用双手机器人系统可以显著减少操作时间和工具对组织的作用力。
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