Numerical Analysis Study on Seismic Performance of Semi-Rigid Steel Frame Infilled with Prefabricated Composite Wall Panels

Tao Wu, Zongmin Zhang
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Abstract

The semi-rigid connected steel frame has good displacement ductility and energy dissipation capacity, and the interaction between the traditional steel frame and the filled wall is the critical factor affecting its seismic performance. In this paper, for the semi-rigid steel frame, the composite wall panel and the frame are separated by foam concrete mortar, and the effective connection is achieved by the tensioned steel bar. The premature brittle failure of composite wall panels can be prevented using friction energy dissipation between wall panels. By using ABAQUS simulation method, a semi-rigid steel frame composite wall is established. The failure mode, hysteresis curve and skeleton curve of simulation and test are compared and analyzed, and the reliability of the model is proved. The finite element model with the different number of wall panels is established to analyze its influence on the seismic performance of the structure. The results show that the frame structure realizes the effective connection between the composite wall panel and the concrete-filled steel tube frame, which jointly resists the earthquake action and reduces the damage of the earthquake action to the filled wall. With the increase in the number of composite wall panels, the ultimate load decreases gradually. The initial stiffness of the four layers of wall panels is more significant and decreases rapidly. When the wall panel has three or four layers, the energy dissipation capacity of the specimen is the strongest. The two are relatively close, stable at 24.48, and the increase is 5.15% compared with the second layer of the wall panel, and the increase is 12.72% compared with the third layer of the wall panel.
用预制复合墙板填充半刚性钢框架抗震性能的数值分析研究
半刚性连接钢框架具有良好的位移延性和消能能力,而传统钢框架与填充墙之间的相互作用是影响其抗震性能的关键因素。本文针对半刚性钢框架,采用泡沫混凝土砂浆将复合墙板与框架隔开,并通过受拉钢筋实现有效连接。通过墙板之间的摩擦消能,可以防止复合墙板过早脆性破坏。利用 ABAQUS 仿真方法,建立了半刚性钢框架复合墙体。对比分析了仿真和试验的破坏模式、滞后曲线和骨架曲线,证明了模型的可靠性。建立了不同墙板数量的有限元模型,分析其对结构抗震性能的影响。结果表明,框架结构实现了复合墙板与混凝土填充钢管框架的有效连接,共同抵抗地震作用,减少了地震作用对填充墙的破坏。随着复合墙板数量的增加,极限荷载逐渐减小。四层墙板的初始刚度较大,且迅速减小。当墙板有三层或四层时,试件的耗能能力最强。二者比较接近,稳定在 24.48,与第二层墙板相比增加了 5.15%,与第三层墙板相比增加了 12.72%。
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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