金门大桥有限元分析

Zixuan Wang, Runchen Zhu, Junyi Gao, Junran Jiang
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摘要

作为桥梁工程的奇迹,对金门大桥的稳定性进行分析具有重要意义。本文采用有限元法对金门大桥的受力性能进行了分析。在这项工作中,利用ANSYS建立了金门大桥无缆的简化模型。桥梁的变形有六种模态,有六种不同的频率。桥梁的固有频率为0.055Hz。由于该简化模型中没有拉索来减少变形,因此平均频率为0.07737 Hz,比固有频率高0.02237 Hz。通过谐波响应分析,当频率为0.0268 Hz、扫相为-56.649°时,桥梁节点处的最大等效应力为1.5487e7 Pa。因此,基于Ansys中的模型对该桥进行的分析清楚地显示了该桥的稳定性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Finite element analysis of the Golden Gate Bridge
As a miracle of bridge engineering, it is meaningful to analyze the stability of the Golden Gate Bridge. This paper focuses on the finite element method to analyze the Golden Gate Bridge’s performance on loading. In this work, ANSYS is used to build a simplified model of the Golden Gate Bridge without cables. There are six modes of the deformation of the bridge, and there are six different frequencies. The natural frequency of the bridge is 0.055Hz. Because this simplified model does not have cables to reduce the deformation, the average frequency is 0.07737 Hz which is 0.02237 Hz higher than the natural frequency. Moreover, after analyzing the harmonic response, the largest equivalent stress is 1.5487e7 Pa at joints of the bridge when the frequency is 0.0268 Hz and the sweep phase is -56.649 degrees. As a result, the analysis of the bridge based on the models in Ansys clearly shows the stability of the bridge.
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