高过载冲击缓冲防护材料的研究进展

IF 2 Q2 ENGINEERING, MECHANICAL Frontiers in Mechanical Engineering Pub Date : 2024-07-12 DOI:10.3389/fmech.2024.1284758
An Zhang, Peng Liu, He Zhang
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引用次数: 0

摘要

穿甲引信作为穿甲弹的起爆控制部件,在穿甲过程中通常会出现几万甚至几十万g的过载。为了防止引信过载导致武器提前爆炸或误发,本文介绍了采用内部密封加固和外部吸能缓冲材料保护引信内部电路模块的方法。本文综述了几种吸能缓冲材料,包括泡沫金属材料和复合夹层结构材料,以及最近引起工业界和学术界关注的超材料。重点介绍了材料的高过载冲击能量吸收特性和不同材料结构的力学性能。此外,本文还评估了现有缓冲材料和方法的适用性和局限性,并提出了一些潜在的改进方案,如粘弹性、孔隙率、表面涂层、印刷工艺、热处理工艺等参数对材料能量吸收效果的影响,进一步提高了缓冲保护材料的工程实用性。总结了穿透引信防护材料研究的关键技术,提出了一些力学测试方法,可以更好地表征材料的抗冲击性和回弹性。最后,探讨了穿甲引信缓冲材料的未来发展方向,有助于推动穿甲导弹缓冲材料概念的研究。
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Advancements in research on high-overload impact-buffering protective materials
The penetration fuze, as the initiation control component of the penetration weapon, usually experiences an overload of tens of thousands or even hundreds of thousands of g during the penetration process. In order to prevent the fuze from being overloaded and causing the weapon to explode or misfire early, this article introduces the use of internal sealing reinforcement and external energy absorbing buffer materials to protect the internal circuit modules of the fuze. Several kinds of energy absorbing and buffering materials, including foam metal materials and composite sandwich structure materials, as well as metamaterials that have recently attracted the attention of industry and academia, are reviewed. The high overload impact energy absorption characteristics of materials and the mechanical properties of different material structures are emphatically introduced. In addition, this article also evaluates the applicability and limitations of existing buffer materials and methods, and proposes some potential improvement plans, such as the impact of parameters such as viscoelasticity, porosity, surface coating, printing process, heat treatment process on the energy absorption effect of materials, further improving the engineering practicality of buffer protection materials. A summary of the key technologies in the research of penetration fuze protective materials was made, and some mechanical testing methods were proposed, which can better characterize the impact resistance and resilience of materials. Finally, the future development direction of buffer materials for penetration fuzes was explored, which will help promote the research on the concept of buffer materials used on penetration missiles.
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来源期刊
Frontiers in Mechanical Engineering
Frontiers in Mechanical Engineering Engineering-Industrial and Manufacturing Engineering
CiteScore
4.40
自引率
0.00%
发文量
115
审稿时长
14 weeks
期刊最新文献
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