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首页> 外文期刊>Journal of Manufacturing Processes >Exploring a hybrid manufacturing process to develop high performance age hardenable ultrafine grained AA6063/SiC nano-composite sheets
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Exploring a hybrid manufacturing process to develop high performance age hardenable ultrafine grained AA6063/SiC nano-composite sheets

机译:探索混合动力制造过程以开发高性能时代可硬化超细颗粒AA6063 / SiC纳米复合板材

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摘要

In the present work, a novel hybrid manufacturing process is established to develop high performance AA6063/SiC nano-composite sheets. The novel hybrid manufacturing process consists of cryorolling (CR) followed by warm rolling (WR). The resultant effect of the hybrid processing route on the mechanical properties, strain hardening ability, microstructural evolution and age hardening response was studied in detail. The outcomes of the hybrid processing route showed a significant enhancement in strength of CR + WR nano-composites. The improvement in strength of CR + WR is due to the combined effect of increased dislocation density, dynamic recovery, grain refinement, and aging treatment. Imparting of optimum age hardening (A) treatment (150 °C for 4 h) to CR + WR nano-composite resulted in significant enhancement of strength-ductility combination which is found to be highest among the published literature on AA6XXX/SiC composites. The mechanical properties of peak aged CR + WR composites are also found to be higher than that of CR (90% cryorolled +Peak aged)) nano composite. The scientific knowhow and governing mechanisms were established to understand the potential of hybrid manufacturing process on significant enhancement of mechanical properties and age hardening response on AA6063/SiC nano-composites.
机译:在本作工作中,建立了一种新型混合制造工艺,以开发高性能AA6063 / SiC纳米复合板。新型混合制造过程包括低温(CR),然后是温暖的轧制(WR)。详细研究了杂化处理途径对机械性能,应变硬化能力,微观结构演化和年龄硬化响应的效果。杂化加工途径的结果显示CR + WR纳米复合材料的强度显着提高。 CR + WR强度的提高是由于脱位密度增加,动态回收,晶粒细化和老化处理的综合影响。赋予最佳年龄硬化(A)处理(150℃,4小时)至Cr + Wr纳米复合材料导致强度 - 延展性组合的显着增强,该组合在AA6xxx / SiC复合材料上发表的文献中是最高的。发现峰值老化Cr + Wr复合材料的机械性能高于Cr(90%低温+峰老化)的纳米复合材料的机械性能。建立了科学知识和管理机制,了解杂交制造过程对AA6063 / SiC纳米复合材料的显着提高力学性能和年龄硬化反应的潜力。

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