形状记忆合金蜂窝结构抗冲击性能研究

李金矿; 万文玉; 刘闯

doi:10.21656/1000-0887.440004

形状记忆合金蜂窝结构抗冲击性能研究

doi: 10.21656/1000-0887.440004

南京工业大学土木工程学院，南京 211816

基金项目:

国家自然科学基金 12102173

详细信息

作者简介:
李金矿(2002—)，男(E-mail: 202021024302@njtech.edu.cn)

通讯作者:
刘闯(1992—)，男，副教授，博士，硕士生导师(通讯作者. E-mail: liuc@njtech.edu.cn)

中图分类号: TU502
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- 文章访问数: 340
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- PDF下载量: 90
- 被引次数: 0
出版历程
- 收稿日期: 2023-03-27
- 修回日期: 2023-07-10
- 刊出日期: 2024-01-01

Study on Impact Resistance of Shape Memory Alloy Honeycomb Structures

College of Civil Engineering, Nanjing Tech University, Nanjing 211816, P.R.China

摘要

摘要: 形状记忆合金(shape memory alloy，SMA)在外载荷作用下可发生伪塑性变形，利用这一特性设计了可重复使用的冲击吸能结构. 基于经典的形状记忆合金本构模型，建立了薄壁结构有限元模型，分析了不同类型蜂窝结构在不同冲击速度下的变形模式和能量吸收等动力特性，得到了具有最优能量吸收性能的形状记忆合金结构. 此外，对比形状记忆合金和传统金属铝蜂窝结构的吸能性能发现，在不同速度冲击下，不同结构形式的形状记忆合金蜂窝同铝蜂窝在能量吸收方面具有较大差异，最优结构发生改变. 该文成果可为形状记忆合金抗冲击蜂窝结构的选型和设计提供参考.
- 形状记忆合金 /
- 蜂窝结构 /
- ABAQUS /
- 变形模式 /
- 能量吸收
Abstract: The shape memory alloy (SMA) can deform pseudo-plastically under external load, based on which a reusable impact energy absorption structure was designed. According to the classical SMA constitutive model, the finite element model for thin-wall structures was established, and the dynamic characteristics such as deformation modes and energy absorption of different forms of honeycomb structures under different impacting velocities, were analyzed, and the optimal energy absorption performance of the SMA structures was obtained. In addition, through comparison of the energy absorption performance of the SMA honeycomb with that of the aluminum honeycomb, the energy absorption of the SMA honeycomb with different structure configurations was different from that of the aluminum honeycomb under different-velocity impacts, with the optimal structure changes. The work provides a reference for the selection and design of the SMA honeycomb structures.
- shape memory alloy /
- honeycomb structure /
- ABAQUS /
- deformation mode /
- energy absorption

HTML全文

图 1 形状记忆合金用户子程序计算流程

Figure 1. The UMAT computation flow

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图 2 蜂窝结构的有限元模型

Figure 2. The element model for the honeycomb structure

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图 3 蜂窝结构变形图

Figure 3. Deformation diagram of the honeycomb structure

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图 4 有限元结果与参考文献实验结果应力-应变曲线比较

Figure 4. Comparison of stress-strain curves between finite element results and experimental results in reference

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图 5 蜂窝结构能量吸收-应变曲线

Figure 5. Energy absorption-strain curves of the honeycomb structure

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图 6 蜂窝结构60%应变比吸能数值

Figure 6. Energy absorption values of 60% strain ratio of the honeycomb structure

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图 7 能量吸收提升倍数

Figure 7. Energy absorption growth factor

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表 1 各个蜂窝结构的几何构型与具体参数

Table 1. The geometric configuration and specific parameters of each honeycomb structure

表 2 形状记忆合金材料参数

Table 2. Material parameters of SMA

material parameter	value
Austenite elastic stiffness E^A/GPa	70
Martensite elastic stiffness E^M/GPa	30
Poisson’s ratio (equal for both phases) υ	0.33
thermal expansion coefficient for Austenite α^A/K^-1	2.2×10^-5
thermal expansion coefficient for Martensite α^M/K^-1	2.2×10^-5
Martensitic start temperature M^0s/K	291
Martensitic finish temperature M^0f/K	271
Austenitic start temperature A^0s/K	295
Austenitic finish temperature A^0f/K	315
maximum transformation strain H	0.05
stress influence coefficient for Austenite ρΔs^A/(MPa·K^-1)	-0.35
stress influence coefficient for Martensite ρΔs^M/(MPa·K^-1)	-0.35

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表 3 不同单元数模型变形图

Table 3. Deformation diagrams of the model with different numbers of elements

表 4 能量吸收误差

Table 4. Energy absorption errors

N	engergy absorption value at 70% strain E/J	error ε/%
5×10³	2 717.74	15.15
1×10⁴	2 411.24	2.17
2×10⁴	2 272.02	3.37
4×10⁴	2 360.10	0

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表 5 10 m/s下的蜂窝结构变形图

Table 5. Deformation diagrams of the honeycomb structure at 10 m/s

表 6 100 m/s下的蜂窝结构变形图

Table 6. Deformation diagrams of the honeycomb structure at 100 m/s

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