Investigation on forced vibration response of micro rubber/nano silica added carbon composite beams for structural applications

C. Kannan, R. Ramesh, Rishi S. Vaidya, B. Vijayaram
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引用次数: 1

Abstract

Suppression of vibration is one of the functional requirement in structures subjected to dynamic conditions like machine tools, automobile parts etc. To impart increased dynamic stiffness and strength to woven fabric carbon epoxy composite structures, micro rubber particles of average size 5μm and 20nm nano silica particles were added and its dynamic response was evaluated by experimental forced vibration study. The carbon epoxy composite beams were compared with carbon composite containing 9 wt. % of micro rubber particles and 11wt. % of nano silica particles. Carbon epoxy beams were fabricated by hand layup method by considering Box and Channel cross sectional shape. A fiber volume fraction of 40% and a matrix volume fraction of 60% were preferred as a composition for all considered beams. Six-layered carbon/epoxy beam with uniform cross-sectional area, height to width ratio, and moment of inertia were considered. Forcing sine wave motion was given to the composite beams through higher order stinger which is connecting between free end of the beam and electrodynamic shaker. The forced vibration test was conducted for the frequency range from 50 to 80 Hz with two different forcing amplitudes of 0.05 mm and 0.1mm. The responses show the variation in dynamic performance of carbon when compared with dedicated carbon beam. Closed cross sectional box shape shows improved performance than open channel shaped beam under forced vibration condition.
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结构用微橡胶/纳米二氧化硅加碳复合梁的强迫振动响应研究
在机床、汽车零部件等受动力作用的结构中,抑制振动是其功能要求之一。为了提高机织碳环氧复合材料结构的动态刚度和强度,分别加入平均尺寸为5μm的微橡胶颗粒和20nm的纳米二氧化硅颗粒,并通过实验强迫振动研究来评估其动态响应。将碳环氧复合材料梁与含有9%微橡胶颗粒的碳复合材料梁和含有11wt. %微橡胶颗粒的碳复合材料梁进行了比较。%的纳米二氧化硅颗粒。考虑箱体和沟槽的截面形状,采用手工叠层法制备环氧碳梁。优选40%的纤维体积分数和60%的基体体积分数作为所有考虑的光束的组合物。考虑了具有均匀横截面积、高宽比和惯性矩的六层碳/环氧树脂梁。通过连接梁自由端与电动激振器之间的高阶推力杆,对组合梁进行强制正弦波运动。在50 ~ 80 Hz频率范围内进行强迫振动试验,强迫振幅分别为0.05 mm和0.1mm。与专用碳梁相比,碳梁的动态性能发生了变化。在强迫振动条件下,封闭截面箱形梁的性能优于开槽型梁。
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