A. Zeidan, Zhouyang Xu, Christopher E. Mower, Honglei Wu, Quentin Walker, Oyinkansola Ayoade, Natalia Cotic, J. Behar, Steven E. Williams, A. Arujuna, Y. Noh, R. Housden, K. Rhode
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引用次数: 0
Abstract
Transseptal puncture (TSP) is a prerequisite for left atrial catheter ablation for atrial fibrillation, requiring access from the right side of the heart. It is a demanding procedural step associated with complications, including inadvertent puncturing and application of large forces on the tissue wall. Robotic systems have shown great potential to overcome such challenges by introducing force-sensing capabilities and increased precision and localization accuracy. Therefore, this work introduces the design and development of a novel robotic system developed to perform TSP. We integrated optoelectronic sensors into the tools' fixtures, measuring tissue contact and puncture forces along one axis. The novelty of this design is in the system's ability to manipulate a Brockenbrough (BRK) needle and dilator-sheath simultaneously and measure tissue contact and puncture forces. In performing puncture experiments on anthropomorphic tissue models, an average puncture force of 3.97 ± 0.45 N (1SD) was established - similar to the force reported in literature on the manual procedure. This research highlights the potential for improving patient safety by enforcing force constraints, paving the way to more automated and safer TSP.
经间隔穿刺(TSP)是左心房导管消融治疗房颤的先决条件,需要从心脏右侧进入。这是一个要求很高的程序步骤,与并发症有关,包括无意的穿刺和对组织壁施加大的力。机器人系统通过引入力感应能力和提高精度和定位精度,显示出克服这些挑战的巨大潜力。因此,本工作介绍了一种用于执行TSP的新型机器人系统的设计和开发。我们将光电传感器集成到工具的夹具中,沿着一个轴测量组织接触和穿刺力。该设计的新颖之处在于系统能够同时操作BRK针和扩张器鞘,并测量组织接触和穿刺力。在对拟人组织模型进行穿刺实验时,建立的平均穿刺力为3.97±0.45 N (1SD),与文献中手工程序报道的力相似。这项研究强调了通过强制约束来改善患者安全的潜力,为更自动化和更安全的TSP铺平了道路。