温度对ARB工艺纳米结构材料断裂伸长率的影响

P. B. Sob, Tjprc
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引用次数: 0

摘要

采用累积辊键合工艺(ARB)制备了一种纳米结构材料。随着ARB循环次数的增加,晶粒位错、晶粒旋转、晶粒曲率角和高角度晶界的比例增加。在ARB循环期间,由于发生在ARB循环期间的绝热变暖,材料中的温度升高,材料被观察到伸长更多。材料的最佳温度达到了最大的断裂伸长率。在较高的温度下,材料伸长率更高,在ARB循环期间,材料疲劳在最高温度下发生。结果表明,经过多次ARB循环后,材料的断口表面在较高温度下比在较低温度下更明显。其原因是在ARB循环中,高温延伸比低温延伸范围更深、更大、更长。
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The Effect of Temperature on Elongation to Failure in Nanostructured Material Fabricated by ARB Process
A nanostructured material was produced by accumulated roll bonding (ARB) process after several passes. The grain dislocation, grain rotation, grain curvature angles and the fraction of high angle grain boundaries increased as the ARB cycles increases. During ARB cycles, the material was observed to elongate more as the temperature in the material increases due to adiabatic warming that takes place during ARB cycles. The optimum temperature on the material was achieved for maximum elongation to failure. This causes more material elongation at higher temperature and material fatigue takes at the maximum temperature during ARB cycles. The obtained results revealed indication of material fracture surfaces in higher temperature after several ARB cycles than in lower temperature. The reason for this was due to deeper, bigger, and longer being observed in high temperature elongation than in low temperature elongation range during ARB cycles.
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