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磁脉冲胀形管件材料本构参数识别方法
英文标题:Indentifying constitutive parameters of magnetic pulse bulging tube
作者:单业奇 崔俊佳         
单位:湖南大学 
关键词:磁脉冲胀形管件 材料本构参数反求 轴向压溃 显微压痕试验 多岛遗传算法 
分类号:TG391
出版年,卷(期):页码:2016,41(9):71-79
摘要:

 磁脉冲自由胀形后的管件沿轴向材料分布不均匀,且由于其特殊的几何形状无法通过单向拉伸试验获取其材

 
料参数。为获取磁脉冲胀形管的材料参数,提出了一种基于显微压痕试验的磁脉冲自由胀形管件材料参数的
 
获取方法,整个材料参数获取过程包括显微压痕试验、显微压痕试验有限元模型的建立及验证和基于多岛遗
 
传算法(MIGA)的计算反求3部分。通过显微压痕试验获取胀形管轴向不同位置点处的载荷-侵入量曲线,然
 
后通过改变显微压痕有限元模型中的材料参数使仿真得到的载荷-侵入量曲线不断逼近试验的载荷-侵入量曲
 
线,当两曲线在最小二乘意义上达到误差最小时,由仿真得到的材料参数即被认为是真实的材料参数。最后
 
,将反求得到的不同位置点的材料参数整体代入到磁脉冲自由胀形管轴向压溃仿真中,通过比较轴向压溃仿
 
真与轴向压溃试验的变形模式以及力-位移曲线、峰值力、平均力、总吸能等参数来验证参数的准确性。
 

 The material distribution of the magnetic pulse bulging tube is uneven along the axial 

 
direction, and its material parameters cannot be obtained by the uniaxial tensile test because 
 
of its special geometry. To obtain the material parameters of magnetic pulse bulging tube, a 
 
method based on the micro-indentation test was put forward, and its obtaining progress 
 
included the micro-indentation test, the validation of the finite model of micro-indentation 
 
test and the inverse seeking process based on the multi-island genetic algorithm(MIGA). The 
 
load-depth curve of magnetic pulse bulging tube at different locations was obtained by the 
 
micro-indentation test, and the load-depth curve obtained by the simulation was approached the 
 
micro-indentation test curves constantly by changing the material parameters in the finite 
 
element model. The material parameters in the finite model were considered to be the real 
 
material parameters of the magnetic pulse bulging tube, when the two curves achieved the 
 
minimum error in the least-squares sense. Finally, the material parameters in different 
 
locations of the magnetic pulse bulging tube were used into the axial crushing simulation, and 
 
the accuracy of parameters was verified by comparing forming type, the force-displacement 
 
curve, the mean force and total energy absorption obtained of the stimulation results with 
 
those of the experimental results. 
基金项目:
国家自然科学基金资助项目(51505139)
作者简介:
单业奇(1989-),男,硕士研究生
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