STRUCTURE OPTIMIZATION OF HEATED MANDREL BASED ON RESPONSE SURFACE METHODOLOGY

Abstract

Abstract: Heated mandrel winding is a new method which can achieve composite shell efficient winding. The temperature uniformity of heated mandrel surface is a very significant factor which influences the quality of the composite shell. In this paper, we select heated mandrel as the research object and take the location of mandrel little hole as the optimization variable. We design three factors three levels of test scheme based on Box-Behnken design methods. Then, based on this scheme, Fluent numerical simulation was carried out. Setting temperature trace points on mandrel and writing down the temperature value of these trace points, we calculate the temperature mean square error (MSE) and take MSE values as the response value. By fitting second order response surface equation, using statistical software Minitab to analyze the best position combination, and eventually, following the best scheme to do Fluent simulation, the results showed that model predicted values were in good agreements with simulation values. The temperature MSE of mandrel surface is only 1.96K and the temperature uniformity is good.

Key words: composite, heated mandrel winding, response surface methodology, mandrel structure, numerical simulation

CLC Number:

TB332

XU Jia-zhong , YUAN Ya-nan , GAO Liang-chao , YANG Hai. STRUCTURE OPTIMIZATION OF HEATED MANDREL BASED ON RESPONSE SURFACE METHODOLOGY[J]. Fiber Reinforced Plastics/Composites, 2016, 0(1): 33-39.

References

[1] Qiao Ming, You Bo,Xu Jiazhong. Heat transfer simulation and analysis of mandrel for heated-mandrel winding method of tapered shell[J].Journal of reinforced plastics and composites, 2015, 34(2):145-146.
[2] Kim Jonghyun, Moon Tess J, Howell John R. Transient Thermal Modeling of In-Situ Curing During Tape Winding of Composite Cylinders[J]. American Society of Mechanical Engineers, 2003,125:137-146.
[3] T. Daisuke, S. Takao, D. Toshiro. Residual Stress of Hoop-Wound CFRP Composites Manufactured with Simultaneous Heating[J]. Sensors and Materials, 2012, 24(2): 99-111.
[4] T. Miura, D. Tabuchi, T. Sajima, et al. Improvement of CFRP Pipe′s Burst Strength with SPWC Method[J]. Journal of the Japan Society for Precision Engineering, 2011, 77(9): 856-860.
[5] 许家忠, 乔明, 尤波. 纤维缠绕复合材料原位成型工艺研究[J]. 材料科学与工艺, 2009, 17(2): 191-194.
[6] 邹安澜, 陈光烈, 郭德有, 等. 高压玻璃钢管道固化工艺芯模传热特性研究[J]. 纤维复合材料,2013,23(2):23-25.
[7] 邹安澜, 陈光烈, 郭德有, 等. 高压玻璃钢管道芯模温度预测研究[J].纤维复合材料, 2013,22(1):22-24.
[8] 李平, 蒋丹, 何克强. 高压加热器蒸汽冷却段导流筒内流动的数值模拟[J]. 动力工程, 2007, 27(5): 762-765.
[9] 胡爱凤. 径向热管传热的数值计算及结果分析[J]. 制冷技术, 2008, 36(8): 83-86.
[10] 何为, 薛卫东, 唐斌. 优化试验设计方法及数据分析[M].北京:化学工业出版社,2012: 218-248.
[11] Box G E P,Behnken D W. Some New Three-Level Designs for the Study of Quantitative Variables[J]. Technometrics,1960,2:455-475.
[12] 王永菲, 王成国. 响应曲面法的理论与应用[J].中央民族大学学报(自然科学版), 2005,14(3):236-240.
[13] 吴晓明, 李亮, 李国君, 等. 基于双流体模型的湿蒸汽凝结流动三维数值模拟[J]. 热能动力工程, 2007, 22(4): 367-370.
[14] 韩占忠, 王敬, 兰小平. FLUENT-流体工程仿真计算实例与应用[M]. 北京:北京理工大学出版社,2010: 4-15.
[15] 陈卓如, 金朝铭, 王洪杰, 等. 工程流体力学[M]. 北京:高等教育出版社,2004: 36-37.
[16] 马逢时, 周暐, 刘传冰. 六西格玛管理统计指南: MINITAB使用指导[M]. 北京:中国人民大学出版社,2013: 471-475.