纤维铺层顺序对VARI工艺制备的泡沫填充GFRP矩形管轴向压溃性能影响的实验和数值模拟

玻璃钢/复合材料 ›› 2018, Vol. 0 ›› Issue (9): 87-97.

纤维铺层顺序对VARI工艺制备的泡沫填充GFRP矩形管轴向压溃性能影响的实验和数值模拟

TAPAArnauldRobert, 王继辉^*, 王昌增, YUNUSAMujaheed

武汉理工大学材料科学与工程学院,武汉430070

收稿日期:2018-02-27 出版日期:2018-09-28 发布日期:2018-09-28
通讯作者: 王继辉(1962-),男,博士,教授,主要从事复合材料力学、结构和产品设计方面的研究,jhwang@whut.edu.cn。
作者简介:TAPA Arnauld Robert(1988-),男,硕士,主要从事复合材料力学性能方面的研究。

EXPERIMENTAL AND NUMERICAL ANALYSIS OF THE EFFECT OF STACKINGSEQUENCE ON AXIAL CRUSH PERFORMANCE OF FOAM-FILLED GFRPRECTANGULAR TUBES MANUFACTURED USING VARI PROCESS

TAPA Arnauld Robert, WANG Ji-hui^*, WANG Chang-zeng, YUNUSA Mujaheed

School of Materials Sciences and Engineering, Wuhan University of Technology, Wuhan 430070, China

Received:2018-02-27 Online:2018-09-28 Published:2018-09-28

摘要/Abstract

摘要： 层合板的铺层顺序是影响其在压溃过程中能量吸收性质的重要因素。然而,正确研究铺层顺序的影响,还需结合其他设计参数,比如制造工艺。迄今为止,针对铺层顺序对泡沫填充GFRP管轴向压溃性能的影响已进行了大量研究,但大多采用拉挤、缠绕或手糊工艺。用实验和数值模拟的方法研究了铺层顺序对真空辅助树脂灌注(VARI)工艺制造的泡沫填充GFRP矩形管轴向压溃性能的影响,并从中得出了最优纤维铺层顺序,可获得最佳吸能效果。

关键词: 铺层顺序, 泡沫填充GFRP管, VARI工艺, 压溃性能, CZM

Abstract: Known as a critical design parameter for energy absorbers, the laminate stacking sequence can affect the overall property of laminated composite structures during crush. However, a proper investigation of the effect of stacking sequence still needs to be addressed given the influence of other design parameters such as the manufacturing process. Many analyses have been done so far to understand this effect on axial crush performance of foam-filled GFRP tubes, but most of the tubes used were manufactured using pultrusion, winding or hand layup processes. In this paper, we investigate the effect of stacking sequences on a recently developed kind of foam-filled GFRP tubes manufactured using vacuum assisted resin infusion (VARI) process. Under axial crush loading, we experimentally and numerically investigate the foam-filled GFRP rectangular tubes. The fiber stacking sequence which can achieve the best energy absorption performance were obtained.

Key words: stacking sequences, VARI process, foam-filled GFRP tubes, crush performance, CZM

中图分类号:

TB332

TAPAArnauldRobert, 王继辉, 王昌增, YUNUSAMujaheed. 纤维铺层顺序对VARI工艺制备的泡沫填充GFRP矩形管轴向压溃性能影响的实验和数值模拟[J]. 玻璃钢/复合材料, 2018, 0(9): 87-97.

TAPA Arnauld Robert, WANG Ji-hui, WANG Chang-zeng, YUNUSA Mujaheed. EXPERIMENTAL AND NUMERICAL ANALYSIS OF THE EFFECT OF STACKINGSEQUENCE ON AXIAL CRUSH PERFORMANCE OF FOAM-FILLED GFRPRECTANGULAR TUBES MANUFACTURED USING VARI PROCESS[J]. Fiber Reinforced Plastics/Composites, 2018, 0(9): 87-97.

参考文献

[1] Walid Roundi A E M, Abdellah EL Gharad, Jean-LUC REBIÈRE. Experimental and numerical investigation of the effects of stacking sequence and stress ratio on fatigue damage of glass/epoxy composites[J]. Composites Part B, 2017, 109: 64-71.
[2] R. Velmurugan S S. Influence of fibre orientation and stacking sequence on petalling of glass/polyester composite cylindrical shells under axial compression[M]. International Journal of Solids and Structures, 2007: 6999-7020.
[3] Jiang H., Ren Y., Gao B., et al. Numerical investigation on links between the stacking sequence and energy absorption characteristics of fabric and unidirectional composite sinusoidal plate[J]. Composite Structures, 2017.
[4] J. Babbage P M. Static axial crush performance of unfilled and foam-filled aluminum-composite hybridtubes[J]. Compos Struct, 2005, 70: 177-184.
[5] Mamalis A, Manolakos D, Ioannidis M B, et al. Crushing of hybrid square sandwich composite vehicle hollow bodyshells with reinforced core subjected to axial loading: Numerical simulation[M]. 2003.
[6] T. A. Sebaey E M. Filler strengthening of foam-filled energy absorption devices using CFRP beams[J]. Composite Structures, 2016.
[7] Othman A, Abdullah S, Ariffin A K, et al. Investigating the quasi-static axial crushing behavior of polymeric foam-filled composite pultrusion square tubes[J]. Materials & Design, 2014, 63: 446-459.
[8] Lu Wang W L, Yuan Fang, Li Wan, et al. Axial crush behavior and energy absorption capability of foam-filled GFRP tubes manufactured through vacuum assisted resin infusion process[J]. Thin-Walled Structures, 2016, 98: 263-273.
[9] A. Goren C A. Manufacturing of polymer matrix composites using vacuum assisted resin infusion molding[J]. Archives of Materials Science and Engineering, 2008, 34(2): 117-120.
[10] D. Mondal M G, S. Das. Effect of strain rate and relative density on compressive deformation behavior of closed cell aluminum-fly ash composite foam[J]. MaterDes, 2009, 30: 1268-1274.
[11] D. Mondal M G, S.Das. Compressive deformation and energy absorption characteristics of closed cell aluminum-fly ash particle composite foam[J]. Mater Sci Eng A, 2009, 507(1-2): 102-109.
[12] Goel M. Deformation, energy absorption and crushing behavior of single-, double-and multi-wall foam filled square and circular tubes[J]. Thin-Walled Structures, 2015, 90: 1-11.
[13] Guoxing L T Y. Energy absorption of structures and materials[J]. England: Wood head Publishing Limited, 1-23.
[14] ISO. Fibre-reinforced plastic composites -Determination of mode Ⅰ interlaminar fracture toughness, GIC, for unidirectionally reinforced materials[M]. 15024. 2001.
[15] Z. H. Failure criteria for unidirectional fiber composites[J]. J Appl Mech, 1980, 47(329).
[16] Benzeggagh M L, Kenane M. Measurement of mixed-mode delamination fracture toughness of unidirectional glass/epoxy composites with mixed-mode bending apparatus[M]. 1996.
[17] Sharma A P, Khan S H, Parameswaran V. Experimental and numerical investigation on the uni-axial tensile response and failure of fiber metal laminates[J]. Composites Part B: Engineering, 2017, 125: 259-274.
[18] Hibbitt K, Sorensen. Abaqus 6.6 User′s Manuals[M]. Pawtucket, USA: 1996.
[19] ASTM. Standard test method for mode Ⅰ interlaminar fracture toughness of unidirectional fiber-reinforced polymer matrix composites[M]. 2007.