S2 玻纤织物增强聚合物复合材料在冲击下的动态行为和永久压痕:实验和高保真建模

M. Rezasefat, Yogesh Kumar, Amanda AX da Silva, S. Amico, James D. Hogan, A. Manes
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引用次数: 0

摘要

本文研究了 S2 玻璃编织布增强聚合物复合材料在 18-110 J 能量的低速冲击下的行为。考虑到材料的非线性行为以及层内和层间破坏模式,建立了用于预测其响应的宏观均质有限元模型,以预测冲击破坏。该模型准确预测了冲击造成的永久压痕。通过应用 Ramberg-Osgood 公式,研究了不同的初始刚度值,以评估冲击后的卸载响应。这种方法揭示了初始刚度在非弹性应变累积中的重要作用及其对永久压痕深度的影响。初始刚度越大,非弹性应变就越大,从而影响冲击器的回弹,导致永久压痕越大。通过准确预测不同冲击能量下的永久压痕和损伤累积,本研究有助于更好地理解复合材料的冲击行为,从而促进其更广泛的应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Dynamic Behavior and Permanent Indentation in S2-Glass Woven Fabric Reinforced Polymer Composites under Impact: Experimentation and High-Fidelity Modeling
This paper studies the behavior of S2-glass woven fabric reinforced polymer composite under low-velocity impact at 18–110 J energy. A macro-homogeneous finite element model for the prediction of their response is implemented, considering the non-linear material behavior and intralaminar and interlaminar failure modes for the prediction of impact damage. The model accurately predicted the permanent indentation caused by impact. By applying the Ramberg-Osgood formulation, different initial stiffness values are examined to assess the post-impact unloading response. This approach reveals the significant role of initial stiffness in inelastic strain accumulation and its consequent effect on permanent indentation depth. A higher initial stiffness correlates with increased inelastic strain, influencing the impactor rebound and resulting in greater permanent indentation. By accurately predicting permanent indentation, and damage accumulation for different impact energies, this study contributes to a better understanding of the impact behavior of composite materials, thereby promoting their wider application.
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