复合材料飞机机身结构完整性优化研究

A. Nagesh, Ola Rashwan, M. Abu-Ayyad
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引用次数: 3

摘要

新开发的飞机正在使用复合材料层压板代替机身和机翼等不同部件的金属合金。复合材料的主要优点是减轻了结构重量,从而降低了燃料消耗。本项目的目的是研究飞机机身的结构完整性,该机身采用各种类型的碳复合材料层压板,在客舱增压的静载荷下。采用有限元法和HYPERMESH商用软件,结合复合材料工具对夹层结构面板中碳纤维层压板的厚度和方向进行了改变研究。HexPly 8552 AS4碳纤维的三种不同方向/堆叠顺序,具有两个蜂窝芯:hexonal Al和Nomex。结果表明,以30角和45角为取向的HexPly 8552碳纤维和总层压厚度为15.875mm的Nomex蜂窝芯为复合材料,在静载荷破坏方面优于其他所有厚度和取向的复合材料。
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Optimization of the Composite Airplane Fuselage for an Optimum Structural Integrity
The newly developed airplanes are using composite laminates to replace the metal alloys for different components, such as the fuselage and the wings. The major advantage of the composite materials is to reduce structural weight which results in reducing the fuel consumption. The aim of this project is to investigate the structural integrity of an airplane fuselage, which uses various types of carbon composite laminates under the static loading of the cabin pressurization. The research is performed using the finite element method and the HYPERMESH commercial software with a composite tool to change the thickness and the orientation of carbon fiber laminates used in the facesheet of the sandwich structure. Three different orientations/stacking sequence of the HexPly 8552 AS4 carbon fibers with two honeycomb cores: Hexagonal Al and Nomex. The results show that the composite material using the HexPly 8552 carbon fiber oriented at angle 30 and angle 45 and the Nomex Honeycomb core of a total laminate thickness of 15.875mm outperform all other thicknesses and orientations in regards to the static loading failure.
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