Design and Evaluation of a Soft-Bodied Magnetic Anchored and Guided Endoscope

T. Cheng, Xue Zhang, C. Ng, P. Chiu, Zheng Li
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引用次数: 3

Abstract

A major challenge of minimally invasive surgery (MIS), particularly in laparoendoscopic single site (LESS) surgery, is trocar crowding. Trocar crowding causes instruments fencing, limited instrument access and limited endoscope views. It also increases the workload of surgeons. One strategy to alleviate the problem is to use magnetic anchored and guided system (MAGS). Existing MAGS endoscopes are assembled by multiple miniature components and actuated by onboard motors. This makes them complex, difficult to manufacture as well as requires additional power consumption. In this work, we present a novel soft-bodied magnetic anchored and guided endoscope, which comprises of a silicon structure, the magnets and a wireless camera module. The developed endoscope incorporates benefits of both MAGS (e.g. wireless steering and translation) and soft-bodied devices (e.g. compactness, lightweight, safety and simple fabrication). We model the moment loads experienced by the silicon structure to optimize the design of the endoscope. Performance and feasibility of the endoscope are validated using both benchtop setting and animal cadaver.
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软体磁锚定导向内窥镜的设计与评价
微创手术(MIS)的一个主要挑战,特别是在腹腔镜单部位(LESS)手术中,是套管针拥挤。套管针拥挤导致器械围篱、器械进出受限和内窥镜视野受限。这也增加了外科医生的工作量。缓解这一问题的一种策略是使用磁锚定制导系统(MAGS)。现有的MAGS内窥镜由多个微型组件组装而成,并由机载电机驱动。这使得它们复杂,难以制造,并且需要额外的功耗。在这项工作中,我们提出了一种新型的软体磁性锚定和引导内窥镜,它由硅结构,磁铁和无线摄像模块组成。开发的内窥镜结合了MAGS(例如无线转向和平移)和软体设备(例如紧凑,轻便,安全和制造简单)的优点。为了优化内窥镜的设计,我们模拟了硅结构所承受的力矩载荷。利用实验台和动物尸体验证了内窥镜的性能和可行性。
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