Effect of Amorphous Layer on the Microstructure and Properties of Al-B4C Layered Composite
Citation
MLA Style: Paulo A. Inacio,Yubo Zhang ,Jinchuan.Jie, Tingju. Li"Effect of Amorphous Layer on the Microstructure and Properties of Al-B4C Layered Composite" International Journal of Engineering Trends and Technology 67.6 (2019): 52-58.
APA Style:Paulo A. Inacio,Yubo Zhang ,Jinchuan.Jie, Tingju. Li (2019). Effect of Amorphous Layer on the Microstructure and Properties of Al-B4C Layered Composite International Journal of Engineering Trends and Technology, 67(6), 52-58.
Abstract
An Al-Al+B4C-Al layered composite was produced by semi-continuous casting and hot rolling method, the innerlayer is Almatrix reinforced by 40wt.% B4C (F60), while the outlayer is pure Al. The result shows that the composite innerlayer (Al-B4C) has a high macrohardness of 43HBS1.5/125/30, once the outlayer pure Al has 16.5HBS1.5/125/30. However, due to the significant difference between Al and B4C in the inner layer, there are always defects near their interface and there is a sharp hardness gradient. By means of surface alloying, oxidation and acid attack on the reinforcement surface, a microamorphous transition (MAT) layer was found bounding the reinforcement’s particles. The microhardness behaviour shows the MATlayer has ~900HV (1Kgf/15s) on the reinforcement boundary and decays exponentially until the transition layer have no effect on the Almatrix (~32HV). This MAT layer bounding the reinforcement reduces the properties gradient and raises the composability, leading to a better impact resistance
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Keywords
B4C, layered composite, Amorphous Layer, Reinforcementtreatment