Conceptualisation and specification of a biologically-inspired, soft-bodied gastric robot

Ryman Hashem, Weiliang Xu, M. Stommel, Leo K. Cheng
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引用次数: 6

Abstract

Digestion of food is a regular activity in many species to maintain nourishment and growth. In humans, a typical digestion depends on the process of a churning action to break down the food in a stomach. Medical and biomedical experts stated that this physical motility frequency and deformation significantly affect the digestion process. Antral contraction wave (ACW) is the mechanical peristalsis action occurs in the smooth muscles of a stomach. Researchers from diverse disciplines are seeking more understanding of the ACW mechanism. The current state of physical stomach replicants is usually rigid models. The motility of these robots is different compared to the observed biological organ. In response to this gap, the interest of the proposed robot is to mimic the ACW physical deformation more similar to the gastric motility. It is assumed that the biologically-inspired robot will facilitate the investigation of ACW by physical peristaltic actuation model. The conceptualisation and specification of the soft gastric actuator discussed in this article. The primary robot conduit had been designed with geometry similar to that in the biological gastric. The proposed actuation method was tested by finite element analysis (FEA) software preceding the final conceptual gastric-soft robot design.
一种受生物启发的软体胃机器人的概念化和规格说明
消化食物是许多物种维持营养和生长的常规活动。在人类中,典型的消化过程依赖于胃里的搅动作用来分解食物。医学和生物医学专家指出,这种身体运动频率和变形显著影响消化过程。胃窦收缩波(ACW)是发生在胃平滑肌上的机械蠕动作用。来自不同学科的研究人员正在寻求对ACW机制的更多了解。物理胃复制体目前的状态通常是刚性模型。与观察到的生物器官相比,这些机器人的运动是不同的。针对这一空白,所提出的机器人的兴趣是模仿更类似于胃运动的ACW物理变形。假设仿生机器人将通过物理蠕动驱动模型为ACW的研究提供便利。本文讨论了胃软致动器的概念和规格。机器人的主导管被设计成与生物胃相似的几何形状。在最终的胃软机器人概念设计之前,采用有限元分析软件对所提出的驱动方法进行了测试。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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