竹叶灰-碳化硅杂化增强铝基复合材料的热变形行为

IF 1.9 Q3 ENGINEERING, MANUFACTURING Manufacturing Review Pub Date : 2020-01-01 DOI:10.1051/mfreview/2020014
K. Alaneme, S. Babalola, L. Chown, M. Bodunrin
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引用次数: 10

摘要

在Gleeble 3500热模拟机上,对BLA-SIC混杂增强铝复合材料在不同变形温度(300 ~ 400℃)和应变速率(0.01 ~ 1 s‑1)下的等温压缩性能进行了测试。利用应力-应变曲线趋势图、活化能和金相组织分析,确定了其流变行为和软化机理。结果表明:流动应力随温度的降低而增大;但对应变速率不完全敏感,这是一些基于Al 6XXX的金属体系的特征。此外,在应变速率为0.01和0.1 s - 1时观察到非特征的流变应力振荡,而在1 s - 1时观察到稳态流变应力。热加工活化能为290.5 kJ/mol,介于文献报道的各种Al基复合材料的111 ~ 509 kJ/mol之间。结果表明,在应变速率为0.01和0.1 s- 1时,动态再结晶和/或位错-强化相互作用是主要的变形机制,而在1 s- 1时,动态恢复是主要的变形机制。
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Hot deformation behaviour of bamboo leaf ash–silicon carbide hybrid reinforced aluminium based composite
Isothermal compression testing of BLA-SIC hybrid reinforced Aluminium composites was performed on Gleeble 3500 thermomechanical simulator under different deformation temperatures (300–400 °C) and strain rates (0.01–1 s‑1). The flow behaviour and the softening mechanisms were established using the trend of the stress-strain curves, activation energy and microstructural examination. The results showed that flow stress increased with decreasing temperature; but was not entirely strain rate sensitive − a characteristic identified in some Al 6XXX based metallic systems. Also, uncharacteristic flow stress oscillations were observed at strain rates of 0.01 and 0.1 s‑1 while steady state flow stress was observed at 1 s‑1. The hot working activation energy was ∼290.5 kJ/mol which was intermediate to the range of 111–509 kJ/mol reported in literature for various Al based composites. It was proposed that at strain rates of 0.01 and 0.1 s‑1, dynamic recrystallization and/or dislocations-reinforcements interactions were the dominant deformation mechanism(s), while at 1 s‑1, dynamic recovery was predominant.
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来源期刊
Manufacturing Review
Manufacturing Review ENGINEERING, MANUFACTURING-
CiteScore
5.40
自引率
12.00%
发文量
20
审稿时长
8 weeks
期刊介绍: The aim of the journal is to stimulate and record an international forum for disseminating knowledge on the advances, developments and applications of manufacturing engineering, technology and applied sciences with a focus on critical reviews of developments in manufacturing and emerging trends in this field. The journal intends to establish a specific focus on reviews of developments of key core topics and on the emerging technologies concerning manufacturing engineering, technology and applied sciences, the aim of which is to provide readers with rapid and easy access to definitive and authoritative knowledge and research-backed opinions on future developments. The scope includes, but is not limited to critical reviews and outstanding original research papers on the advances, developments and applications of: Materials for advanced manufacturing (Metals, Polymers, Glass, Ceramics, Composites, Nano-materials, etc.) and recycling, Material processing methods and technology (Machining, Forming/Shaping, Casting, Powder Metallurgy, Laser technology, Joining, etc.), Additive/rapid manufacturing methods and technology, Tooling and surface-engineering technology (fabrication, coating, heat treatment, etc.), Micro-manufacturing methods and technology, Nano-manufacturing methods and technology, Advanced metrology, instrumentation, quality assurance, testing and inspection, Mechatronics for manufacturing automation, Manufacturing machinery and manufacturing systems, Process chain integration and manufacturing platforms, Sustainable manufacturing and Life-cycle analysis, Industry case studies involving applications of the state-of-the-art manufacturing methods, technology and systems. Content will include invited reviews, original research articles, and invited special topic contributions.
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