使用 COMSOL Multiphysics 探索钛镍固体合金的结构力学:泊松方程和连续性方程视角

P. Manga, Mohammed Maina, H. Samaila, E.W. Likta, R. Amusat, S. Daniel
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引用次数: 0

摘要

本研究通过 COMSOL Multiphysics,基于泊松方程和连续性方程进行应力检查,考虑到钛镍(Ti-Ni)合金薄膜的线性弹性和电荷守恒,利用计算建模研究其结构力学,并深入了解纳米材料的变形。在 COMSOL 环境中,钛镍(Ti-Ni)参数被嵌入 COMSOL Simulink 界面。薄膜层的设计是通过定义薄膜层的尺寸和形状来实现的,薄膜层的宽度为 500 μm,深度为 200 μm,高度为 3 μm,薄膜层的边界条件包括 von - mises 应力、表面温度、等表面温度、多片电动势、位移分量、表面弹性应变能密度和总焓。结果显示出一种趋势,即随着表面温度的升高,与高电导相关的电流密度也会增加。同样,设计的薄膜层将通过渗流阈值。表面弹性应变能量密度和总焓的结果表明,所设计的薄膜层作为结构性伪电势器件(光电二极管)是有效和高效的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Exploring the structural mechanics of titanium nickel solid alloy using COMSOL Multiphysics: A Poisson equation and continuity equation perspective
This study investigates the structural mechanics of titanium-nickel (Ti-Ni) alloy thin film using computational modelling through COMSOL Multiphysics based on Poisson’s equation and continuity equation for stress check by considering its linear elastic, conservation of charge and providing insight into nanomaterial deformation. In the COMSOL environment the parameters for titanium nickel (Ti-Ni) are embedded in the COMSOL Simulink interface. The Thin film layer was designed by defining the layer geometry of the size and shape of the layer with a width of 500 μm, depth of 200 μm and height of 3 μm subjected to boundary conditions such as von – mises stress, surface temperature, iso-surface temperature, multi-slice electric potential, displacement component, surface elastic strain energy density and total enthalpy. The results displayed a trend that is, as the surface temperature increases there will be an increase in the current densities associated with high electrical conduction. On the same note, the designed thin film layer will pass the percolation threshold. The results of surface elastic strain energy density and total enthalpy imply that the designed thin film layer is effective and efficient as a structural pseudopotential device (photodiode).
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