Study of Resistance to Impact Penetration of Auxetic Metamaterials at Various Angles of Rotation of Their Internal Cellular Structure

IF 0.9 4区 工程技术 Q4 MECHANICS
S. Yu. Ivanova, K. Yu. Osipenko, N. V. Banichuk, D. S. Lisovenko
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Abstract

The resistance of auxetic metamaterials based on a cell in the form of a concave hexagon (with a negative Poisson’s ratio) to penetration by a rigid spherical striker along the normal was experimentally studied. Samples of metamaterials with a chiral and non-chiral internal structure were made on a 3D printer from flexible thermoplastic polyurethane (TPU 95A plastic) and rigid e-PLA plastic. For all four types of metamaterials, samples were prepared whose internal structure differed in the rotation angle (0, 30, 60, or 90°) relative to the vertical axis. The samples were compared by their ability to reduce the kinetic energy of strikers at a speed of about 190 m/s at a temperature of 16°C. It was found that auxetics made of thermoplastic polyurethane with a non-chiral structure rotated by 90° are the most effective in terms of resistance to striker penetration. The dependence of the striker deviation on exit from the samples (up or down) on the direction of rotation of the internal structure of the sample at an angle from 0 to 90° clockwise or counterclockwise, respectively, was revealed.

Abstract Image

增塑型超材料内部细胞结构不同旋转角度抗冲击侵彻性能研究
实验研究了基于凹六边形(负泊松比)单元的消声超材料对刚性球头沿法向侵穿的阻力。以柔性热塑性聚氨酯(TPU 95A塑料)和刚性e-PLA塑料为材料,在3D打印机上制备了具有手性和非手性内部结构的超材料样品。对于所有四种类型的超材料,制备了相对于垂直轴的旋转角度(0,30,60或90°)不同内部结构的样品。在16°C的温度下,以190 m/s的速度降低冲击剂的动能,对两种样品进行了比较。研究发现,由非手性结构旋转90°的热塑性聚氨酯制成的增塑剂在抗冲击渗透方面是最有效的。揭示了样品内部结构沿顺时针或逆时针方向旋转0 ~ 90°时,样品出口的冲击器偏差(向上或向下)与样品内部结构旋转方向的依赖关系。
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来源期刊
Mechanics of Solids
Mechanics of Solids 医学-力学
CiteScore
1.20
自引率
42.90%
发文量
112
审稿时长
6-12 weeks
期刊介绍: Mechanics of Solids publishes articles in the general areas of dynamics of particles and rigid bodies and the mechanics of deformable solids. The journal has a goal of being a comprehensive record of up-to-the-minute research results. The journal coverage is vibration of discrete and continuous systems; stability and optimization of mechanical systems; automatic control theory; dynamics of multiple body systems; elasticity, viscoelasticity and plasticity; mechanics of composite materials; theory of structures and structural stability; wave propagation and impact of solids; fracture mechanics; micromechanics of solids; mechanics of granular and geological materials; structure-fluid interaction; mechanical behavior of materials; gyroscopes and navigation systems; and nanomechanics. Most of the articles in the journal are theoretical and analytical. They present a blend of basic mechanics theory with analysis of contemporary technological problems.
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