基于PDMS的鱼圆丘形仿生流量传感器水下传感建模

M. Nawi, A. A. Manaf, M. Arshad, O. Sidek
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引用次数: 5

摘要

本文提出了基于鱼丘状体的水下传感仿生流量传感器的初步建模。鱼类依靠这个丘状体来监测流场,特别是在水下的机动和生存。提出了用液体和电解质组成的微通道进行传感的设计结构和原理。选择PDMS材料,因为它容易变形,柔软。采用计算流体力学和有限元方法,通过优化穹顶半径和厚度的几何尺寸,获得了最优的性能。传感器的性能是根据位移和应变来测量的。采用不同的穹顶半径和厚度对传感器的灵敏度进行了研究。本研究选择半径为0.2mm ~ 1.2mm的圆屋顶。流速为1m/s时,最大位移为0.27μm,应变为3.98E-4。仿真结果表明,当弹幕半径最大、弹幕厚度最小时,弹幕的灵敏度最大。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Modeling of biomimetic flow sensor based fish dome shaped cupula using PDMS for underwater sensing
This paper presents the initial modeling on the biomimetic flow sensor based fish dome-shaped cupula for underwater sensing. Fish depend on this cupula to monitor the flow fields especially for maneuvering and survival underwater. We proposed the design structure and the principle of sensing using microchannel which is consist of liquid and electrolyte. PDMS material was chosen because it is easy to deform and soft. By using a computational fluid dynamic and finite element method, the optimal performance was obtained by optimizing the geometrical dimension of the radius and thickness of the dome. The sensor performance is measured on the basis of displacement and strain. The sensitivity of the sensor has been investigated by using different radius and thickness of the dome. Dome with a radius of 0.2mm until 1.2mm was chosen for this study. The resulting in a maximum displacement is 0.27μm and the strain is 3.98E-4 for a flow rate of 1m/s. Simulation results show that the sensitivity of the dome is a maximum when the radius of the dome at the maximum and the thickness of the dome at the minimum.
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