超高承载能力飞机用纤维金属层压剪切板设计

T.C. Wittenberg , T.J. van Baten , A. de Boer
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引用次数: 39

摘要

金属纤维层压板(FML)由于其优异的疲劳性能和相对较低的密度,被认为是未来一代超高容量飞机(UHCA)机身材料的候选材料。为了充分利用传统铝合金机身结构的后屈曲特性,将现有的后屈曲剪切板工程设计方法应用于FML材料。为了验证适应的设计方法,设计了两个加劲FML剪力板并进行了测试,直到失效。面板的尺寸被认为是UHCA机身结构的代表。此外,使用STAGS进行了详细的有限元分析,以预测测试期间面板的响应。有限元结果与实验数据吻合良好,为用计算机模拟代替昂贵的实际面板测试提供了信心。结果表明,试验板尺寸超出了现行后屈曲板工程设计方法的适用范围。为了解释这种现象,提出了对当前设计方法的一种扩展。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design of fiber metal laminate shear panels for ultra-high capacity aircraft

Due to their excellent fatigue characteristics and relatively low density, fiber metal laminates (FML) are considered as candidates for fuselage materials in future generation ultra-high capacity aircraft (UHCA). To exploit the postbuckling behavior, as is the practice in conventional aluminum alloy fuselage structures, an existing engineering design method for postbuckled shear panels was adapted for applications with FML materials. To verify the adapted design methodology, two stiffened FML shear panels were designed and tested until failure. The dimensions of the panels were taken to be representative of an UHCA fuselage structure. In addition, detailed finite element analyses were performed with STAGS to predict panel response during testing. The finite element results showed very good agreement with experimental data, giving confidence in replacing very costly actual panel tests with computer simulations. It was found that the test panel dimensions were outside the region where the current engineering design method for postbuckled panels is valid. To account for this phenomenon, an extension to the current design method is proposed.

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