Investigation of additive manufactured micro-lattice structures for defence applications

IF 1.3 4区 材料科学 Q4 MATERIALS SCIENCE, MULTIDISCIPLINARY Materials Science-Poland Pub Date : 2023-12-04 DOI:10.2478/msp-2023-0023
Ameer Malik Shaik, Bobbili Veera Siva Reddy, C. Chandrasekhara Sastry, J. Krishnaiah, B. Ramakrishna
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Abstract

This study investigates the blast mitigation capabilities of A286 steel micro-lattice structures produced through additive manufacturing. The research explores the effects of different manufacturing conditions, such as stress relief and heat treatment, on the mechanical properties and blast resistance of honeycomb and gyroid lattice structures in correlation with armour steel structures. Comprehensive evaluations, including surface morphology, corrosion resistance, and compressive residual stress analysis, reveal notable findings for micro-lattice structures. Micro-lattice structures demonstrated 57.23% higher corrosion resistance compared to conventional materials, presently available in the form of rolled homogeneous armour, medium hardness armour, and high-nitrogen steel. Additionally, honeycomb lattice structures exhibit compressive residual stresses of up to 581.90 MPa, providing significant advantages in blast mitigation potential. These results underscore the significance of lattice geometry, material microstructure, and residual stress in enhancing blast resistance. The research offers valuable insights into optimizing additive manufactured structures as an alternative modular solution for defence applications.
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国防用增材制造微晶格结构研究
研究了采用增材制造技术生产的A286钢微晶格结构的防爆性能。研究了不同的制造条件,如应力消除和热处理,对蜂窝和陀螺晶格结构的力学性能和抗爆性能的影响与装甲钢结构相关。综合评价,包括表面形貌、耐腐蚀性和压缩残余应力分析,揭示了微晶格结构的显著发现。微晶格结构的耐蚀性比传统材料(目前以轧制均匀装甲、中硬度装甲和高氮钢的形式)高57.23%。此外,蜂窝晶格结构表现出高达581.90 MPa的压缩残余应力,具有显著的爆炸缓解潜力。这些结果强调了晶格几何形状、材料微观结构和残余应力对提高抗爆炸性能的重要性。该研究为优化增材制造结构作为国防应用的替代模块化解决方案提供了有价值的见解。
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来源期刊
Materials Science-Poland
Materials Science-Poland MATERIALS SCIENCE, MULTIDISCIPLINARY-
自引率
18.20%
发文量
18
期刊介绍: Material Sciences-Poland is an interdisciplinary journal devoted to experimental research into results on the relationships between structure, processing, properties, technology, and uses of materials. Original research articles and review can be only submitted.
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