基于有限元分析的半自动腹腔镜机器人末端执行器设计与受力分析

Hisami Takeishi, Francisco Emmanuel T. Munsayac, Francheska B. Chioson, R. Baldovino, N. Bugtai
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引用次数: 7

摘要

腹腔镜手术是一个小切口的手术,而传统的开放手术则需要大切口。尽管有更快愈合和更少疤痕的好处,但由于狭窄的空间和外科医生尴尬的位置,手术非常困难。为了克服这些困难,设计了一种半自动腹腔镜仪器。它具有关节关节和4个自由度(DOF)。需要对设计进行验证,以确定其是否符合所需的操作规范。介绍了一种带抓握器的腹腔镜器械关节铰接末端执行器的设计。采用CATIA V5软件的有限元分析(FEA)软件包进行设计分析。在开始有限元分析时确定约束条件,同时确定零件之间的连接和接触。根据零件之间的关系,确定了几种有限元连接方式。根据人肝脏的平均重量,施加5-N的力到末端执行器的尖端。结果显示了装配分析、Von Mises应力和装配最大变形的误差。结果表明,该设计能够实现四自由度运动,即沿轴旋转、90°轴弯曲、抓取夹紧和末端执行器旋转。当零件组装完成,获得的整体应力和变形也在可接受的操作范围内时,进行了更精确的有限元分析。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design and Force Analysis of the Robot End-effector of a Semi-Automated Laparoscopic Instrument using Finite Element Analysis
Laparoscopic surgery is a procedure where small incisions are made compared of the conventional open surgery that involves large incisions. Despite having the benefit of faster healing and fewer scars, it is very difficult to operate due to tight spaces and awkward positions of the surgeons. To overcome such difficulties, a semi-automated laparoscopic instrument was designed. It features joint articulation and has 4 degrees of freedom (DOF). Verification of the design is needed to tell whether it meets the needed operation specification. In this paper, a design of the joint articulating end-effector with a grasper of laparoscopic instrument was presented. The finite element analysis (FEA) package of CATIA V5 was used for the design analysis. The constraints were determined upon starting the FEA while the connections and contacts between the parts were also determined. Several FEA connection types were determined based on the relationship among the parts. A 5-N force, based on the average human liver weight, was applied to the tip of the end-effector. Results presented the errors of the assembly analysis, Von Mises stress and maximum deformation of the assembly. It was concluded that the design was capable of the 4DOF movements, which are the following: rotation along the axis, 90° shaft bending, grasp clamping action and end-effector rotation. A more accurate finite element analysis was performed when the parts are assembled and the overall stress and deformation acquired was also within acceptable range of operation.
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