铝蜂窝复合结构:航空航天应用

D. L. Majid, N. H. Manan, Yee Ling Chok
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摘要

蜂窝复合结构通常是由一个重量轻的六角形芯夹在两个粘接的薄面板之间组成。根据应用的不同,芯板和面板都可以是多种材料的组合。本文综述了航空航天用铝蜂窝复合材料结构的设计与制造过程。铝蜂窝复合材料结构是一种具有高比强度和刚度的轻量化结构,主要应用于航空航天工业。铝蜂窝板通常由飞机的二级结构部件和内部组成,如机翼蒙皮、后缘、控制面、地板、隔板、飞机厨房和头顶行李箱等。其他应用还包括航天器、直升机、导弹和卫星。由于其独特的六边形蜂窝设计,与相同重量的实体相比,它的刚度可以提高30倍以上,抗弯强度可以提高10倍。蜂窝复合材料结构的力学性能取决于芯材和面材的材料、芯材的几何形状和面材的厚度。设计为优越的弯曲和剪切载荷,最佳蜂窝设计的选择将取决于应用要求。在航空航天应用中,夹层结构的主要设计准则是减轻重量,并且在性能和成本之间进行权衡。在制造蜂窝复合材料夹层结构方面,主要有两种工艺,一种是用于低密度芯的膨胀工艺,另一种是用于高密度芯的波纹工艺。
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Honeycomb Composite Structures of Aluminum: Aerospace Applications
A honeycomb composite structure is usually composed of a lightweight hexagonal core sandwiched between two thin face sheets that are adhesively joined. Both the core and the face sheets can be combinations of many types of materials depending on the application. In this article, an overview of the design and manufacturing process of aluminum honeycomb composite structures particularly for aerospace application is presented. Aluminum honeycomb composite structures are lightweight constructions with high specific strength and stiffness that are applied mainly in the aerospace industry. An aluminum honeycomb panel is typically made up of the secondary structural components and interiors of an aircraft such as the wing skin, trailing edge, control surface, flooring, partitions, aircraft galleys, and overhead bins, to name a few. Other applications are in the spacecraft, helicopter, missile, and satellite. Owing to its honeycomb design peculiar to the hexagonal beehives, it can reach more than 30 times higher in stiffness and 10 times higher in flexural strength compared to its solid counterpart of the same weight. The mechanical properties of the honeycomb composite structure hinge on the materials of the core and face sheets, the core geometries, and the thickness of the face sheets. Designed for superior flexural and shear loading, the selection of the optimal honeycomb design will depend on the application requirements. The principal design criterion of a sandwich structure in aerospace applications is weight saving, and there is a trade-off between performance and cost. In terms of manufacturing of the honeycomb composite sandwich structure, the two main processes are the expansion process commonly used for low-density cores and the corrugation process for higher density cores.
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