自锚固 AM 金属-CFRP 接头的粘合区数值建模 (CZM)

Fikret Enes Altunok, Giorgio De Pasquale
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引用次数: 0

摘要

轻质设计在工程设计中的重要性与日俱增,这就要求采用创新策略来应对这一挑战。传统上,这些材料的连接需要使用铆钉、螺栓或粘合剂。然而,3D 打印等现代制造技术为制造无需额外粘合机制的接合点提供了可能。本文将深入探讨一项有关多材料系统(特别是复合材料和金属)连接的前景广阔的计划。通过增材制造(AM)技术制造接头的金属部分,可以通过加入图案化的锚来操纵表面几何形状。这反过来又有利于将复合材料直接共固化到改性金属表面上。其主要目的是在不依赖传统紧固元件或粘合剂的情况下增强机械互锁性。这项研究对各种锚固几何形状进行了评估,以评估它们在提高整体连接强度方面的功效。该评估采用内聚区建模 (CZM) 方法来模拟接合试样,然后进行比较分析,以量化接合强度。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Numerical Cohesive Zone Modeling (CZM) of Self-Anchoring AM Metal-CFRP joints
The escalating importance of lightweight design in engineering demands innovative strategies to tackle this challenge. Traditionally, the joining of these materials involves rivets, bolts, or adhesives. However, contemporary manufacturing techniques, such as 3D printing, present the potential to fabricate joints without the necessity for additional binding mechanisms. This paper delves into a promising initiative concerning the joining of multimaterial systems, specifically composites and metals. The fabrication of the metal component of the joint through additive manufacturing (AM) enables the manipulation of surface geometry by incorporating patterned anchors. This, in turn, facilitates the direct co-curing of the composite onto the modified metallic surface. The primary objective is to enhance mechanical interlocking without relying on traditional fastening elements or adhesives. The study evaluates various anchor geometries to assess their efficacy in increasing the overall joint strength. This assessment employs the cohesive zone modeling (CZM) method to simulate joint specimens, followed by comparative analyses to quantify the strengths of the joints.
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