开发与航空航天复合材料集成的纤维传感器,用于结构健康监测

Wenjuan Wang, Mengjie Zhang, Jingfeng Xue
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摘要

随着复合材料在全球飞机上的广泛应用,预计将产生改进结构健康监测(SHM)的巨大需求。与传统传感器相比,光纤传感器具有重量轻、体积小、抗电磁干扰、易于嵌入复合材料等优点。波音公司和空中客车公司等已经报道了广泛的应用,并提供了一些嵌入式技术细节。本文研究了用玻璃布和环氧树脂改良光纤表面粘合复合材料的方法,以及光纤嵌入复合材料的方法。通过微观界面分析和 C-san 方法,研究了光纤与复合材料的安装、复合材料装配压力对 FBG 传感器的适应性、不同纤维直径和不同光纤数量对复合材料结构性能的影响。结果表明,采用适当的光纤嵌入技术可获得最大的 SHM 可行性。玻璃布表面粘接的 FBG 传感器的光强和波长受结构装配压力的影响。可以看出,嵌入光纤的直径等于预浸料单层的厚度,光纤嵌入在 0 度层旁边,在 25mm 宽度的复合材料单元内嵌入少于 5 根光纤对复合材料结构的影响很小。然后,在长 600 毫米、宽 600 毫米的碳纤维增强加劲复合板这一典型飞机结构中嵌入了 12 个 FBG 传感器,通过交叉相关算法这一数学分析方法来检测外部冲击载荷的位置和能量。最后,从 FBG 传感器与复合材料蒙皮共成型技术、光纤提取技术研究、新型柔性机翼测试技术和先进光纤传感技术四个方面提出了今后的研究建议。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Development of Fiber Sensors integrated with Aerospace Composites for Structure Health Monitoring
The wide-spread use of composite material in aircraft across the world is expected to create a big need to improve structure health monitoring (SHM). Optical fiber sensors offer more advantages than conventional sensors, such as light weight, small size, immune to electromagnetic interference, easily embedded in composites. Extensive applications have been reported with a few embedded technology details by Boeing and Airbus, etc. In this paper, The methods of improved optical fiber surface-bonded composites by glass cloth and epoxy resin, as well as optical fiber embedded in composites were researched. The installation of fiber and composites, composites assembly pressure adaptability on FBG sensors, influences on structure properties of composite materials due to different fiber diameters and different numbers of optical fibers by the way of microscopic interface analysis and C-san were studied. The adequate fiber embedded technology was found to obtain the most feasibility of SHM. Light intensity and wavelength of FBG sensor surface-bonded by glass cloth are affected by the structural assembly pressure. It can be seen that diameter of embedded optical fiber equal to the thickness of prepreg monolaye, the fiber embedded next to 0 degree layer, less than five fibers within a 25mm width composite unit have little impact on composite structure. Then, 12 FBG sensors were embedded in a typical aircraft structure, a carbon fiber enhanced stiffened composite plate with length 600 mm and width 600 mm, to detect position and energy of external impact load by a mathematical analysis method, cross correlation algorithm. Finally, suggestions on future study are listed from four aspects, co-forming technology of FBG sensor and composite skin, research on the extraction technology of optical fiber, new flexible wing testing technology and advanced fiber optical sensing technology.
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