三点弯曲下疲劳寿命评估:S-D-S-ER和D-S-ER技术的比较

Ibrahim T. Teke , Ahmet H. Ertas
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引用次数: 0

摘要

本研究通过对子建模-密度-形状-元素去除(S-D-S-ER)方法和传统的密度-形状-元素去除(D-S-ER)方法的发展和比较,提出了一种提高结构疲劳性能的新方法。通过三点弯曲疲劳试验,S-D-S-ER方法通过将子建模集成到设计过程中,可以显著提高疲劳寿命和整体结构完整性。这与传统的D-S-ER方法形成对比,后者表现出标准的力学行为,寿命明显缩短。值得注意的是,S-D-S-ER模型表现出与粘性材料相似的力学行为,这是复合材料中经常观察到的特征,而D-S-ER方法则没有。这些结果突出了先进数值模拟的潜力,特别是S-D-S-ER方法,以提高抗疲劳性和耐久性。这一进步与3d打印组件的设计和优化特别相关,这在工业和生物医学应用中变得至关重要。采用这种创新方法可以带来更可靠、更持久的设计,对未来的结构工程和增材制造具有深远的影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Assessment of Fatigue Life Under Three-Point Bending: Comparing S-D-S-ER and D-S-ER Techniques
In this study, it has been presented a novel approach to enhancing structural fatigue performance through the development and comparison of two methodologies: The Sub-modeling-Density-Shape-Element Removal (S-D-S-ER) method and the traditional Density-Shape-Element Removal (D-S-ER) method. Using three-point bending fatigue tests, the S-D-S-ER method is shown to significantly improve fatigue life and overall structural integrity by integrating sub-modeling into the design process. This contrasts with the conventional D-S-ER method, which displayed standard mechanical behavior and a markedly shorter lifespan. Notably, the S-D-S-ER model exhibited mechanical behavior similar to viscous materials—a characteristic often observed in composites—while the D-S-ER method did not. These results highlight the potential of advanced numerical modeling, particularly the S-D-S-ER approach, to enhance fatigue resistance and durability. This advancement is particularly relevant for the design and optimization of 3D-printed components, which are becoming crucial in industrial and biomedical applications. The adoption of such innovative methods could lead to significantly more reliable, long-lasting designs, with profound implications for the future of structural engineering and additive manufacturing.
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CiteScore
1.70
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