A Magnetically Steerable and Automatically Propulsion Guidewire Robot System for Vascular Interventional Surgery

Shixiong Fu, Shanxiu Zhang, Meng Yin, Shu Wang, Dong Li, Xin Wu, Shiwei Du, Tiantian Xu
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Abstract

Magnetically soft continuum robot with automatic navigation capability has great potential to improve the treatment conventional vascular interventional surgery, which exists many problems such as long procedure time and high radiation for doctors to manipulate the passive guidewire. This paper proposes a novel guidewire robot system with magnetically steering and automatically propulsion ability. Actuated by an external magnetic field, the system is able to greatly increase the autonomy of conventional guidewires through the efficient coordination of steering and propulsion. We model the kinematics of autonomous propulsion and magnetically actuation steering separately. Then, the steering performance of the guidewire robot is validated under different magnetic field magnitudes and directions. Finally, two scenario application experiments are implemented to demonstrate the automatic navigation capability of the proposed guidewire robot in a simulated clinical environment. The proposed guidewire robot system provides an effective solution for advancing the automation of vascular interventional surgery.
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一种用于血管介入手术的磁导向自动推进导丝机器人系统
具有自动导航能力的磁软连续体机器人在改善常规血管介入手术治疗方面具有很大的潜力,传统血管介入手术存在操作被动导丝耗时长、辐射大等问题。提出了一种具有磁转向和自动推进能力的新型导丝机器人系统。该系统由外部磁场驱动,通过转向和推进的有效协调,大大提高了传统导丝的自主性。分别建立了自主推进和磁致转向的运动学模型。然后,对导丝机器人在不同磁场强度和方向下的转向性能进行了验证。最后,通过两个场景应用实验验证了所提出的导丝机器人在模拟临床环境中的自动导航能力。所提出的导丝机器人系统为推进血管介入手术的自动化提供了有效的解决方案。
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