回收碳纤维增强聚苯硫醚旋翼机检修板门的设计、制造和试验

T. D. Bruijn, Guillaume Almire Vincent, Johan Meuzelaar, J. Nunes, F. Hattum
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引用次数: 4

摘要

选择了一种用于旋翼飞机的整体加强访问板进行详细设计、测试和实际飞行,以展示一种新的热塑性复合材料回收路线。设计、开发和验证遵循“构建块方法”。使用的材料是后工业碳纤维增强聚苯硫醚废物。这种材料来自与安装面板相同的旋翼飞机的热塑性部件,从而提高了可追溯性、物流和固定供需。材料数据是从力学试验中收集的,并用于预测面板的强度和刚度。选择一个关键的设计细节并进行验证测试。该部分包含在制造演示中,以及其他集成设计特性,支持测试可加工性。最终的面板设计成功生产,并在组件层面进行了测试。再制造过程包括同时加热和低剪切混合,然后在等温模具中压缩成型。这提供了在短周期内保持长纤维和高机械性能的可能性。与目前的碳/环氧溶液相比,最终产品更轻,成本效益更高,并且由可回收材料(纤维和基体)制成。原型面板计划于2019年在旋翼飞机上进行飞行测试。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design, Manufacturing and Testing of a Rotorcraft Access Panel Door From Recycled Carbon Fiber Reinforced Polyphenylenesulfide
An integrally-stiffened access panel for a rotorcraft is selected for detail design, testing and actual flight to demonstrate a novel recycling route for thermoplastic composites. The design, development and validation followed the ‘Building Block approach’. The material used is postindustrial carbon fiber reinforced polyphenylene sulfide waste. This material originates from thermoplastic components of the very same rotorcraft as the panel will be mounted on, improving traceability, logistics and fixing supply and demand. Material data have been gathered from mechanical tests and was used to predict the strength and stiffness of the panel. A critical design detail was selected and tested for validation. This section was included in a manufacturing demo, along with other integrated design features, enabling testing the processability. The final panel design was successfully produced and tested on component level. The re-manufacturing process includes simultaneously applied heat and low-shear mixing, followed by compression molding in an isothermal mold. This offers the possibility to retain long fibers and therefore high mechanical properties at short cycle times. In comparison to the current carbon/epoxy solution, the resulting product is lighter, significantly more cost-effective and made of recycled material (fiber and matrix). The prototype panel is targeted for flight testing on the rotorcraft in 2019.
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