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复合材料,生物材料和生物灵感材料的XFEM:一篇评论

Andre E Vellwock¹, Flavia Libonati²

¹B CUBE-Center for Molecular Bioengineering, Technische Universität Dresden, 01307 Dresden, Germany.

Materials (Basel, Switzerland)

|April 9, 2024

概括

扩展有限元法 (XFEM) 通过揭示材料-断裂关系来推进结构力学. 本文重点介绍了XFEM在材料设计中的应用,将其与其他模型进行比较,并探索未来的AI集成.

科学领域:

结构力学结构力学
计算材料科学计算材料科学
断裂力学断裂力学断裂力学

背景情况:

扩展有限元法 (XFEM) 对于理解材料对压力的反应至关重要.
XFEM揭示了材料拓和各种材料中断裂行为之间的联系.
需要对XFEM应用程序进行专注的审查,而不是其数值建模方面.

研究的目的:

提供使用XFEM的案例研究的详细审查.
突出XFEM在材料设计和分析中的应用.
为了将XFEM与其他计算骨折模型进行比较.

主要方法:

介绍和比较XFEM与轮积分,虚拟裂关闭技术,凝聚区和相场模型.
讨论优缺点,包括数值收,软件实现,裂参数设置和速度.
通过当前的研究,在材料设计中展示XFEM.

主要成果:

XFEM增强了对裂硬化机制的理解,例如裂偏移和停止.
目前的研究强调了XFEM在复合材料,生物材料和生物灵感材料中的应用.
在其他各种科学和工程领域,XFEM显示出前景.

结论:

在分析材料断裂行为方面,XFEM提供了显著的优势.
讨论了XFEM的缺点,以及未来的研究方向.
将XFEM与人工智能集成为未来提供了一个有希望的前景.

关键词:

在这里,我们可以看到AIAIAI.对于女性来说,FEM就是女性.我们的XFEM是XFEM.生物灵感的生物灵感生物材料是生物材料.复合材料复合材料是一种复合材料.骨折建模骨折建模

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