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Uncovering Technological and Environmental Potentials of Aluminum Alloy Scraps Recycling Through Friction Stir Consolidation

机译:通过摩擦搅拌巩固揭示铝合金废料的技术和环境潜力

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摘要

Conventional metal chips recycling processes are energy-intensive with low efficiency and permanent material losses during re-melting. Solid state recycling allows direct recycling of metal scraps into semi-finished products. It is expected that this process category would lower the environmental performance of metals recycling. Friction Stir Consolidation is a new solid-state technique taking advantage of friction heat generation and severe plastic deformation to consolidate chips into billets. In this research, the feasibility of Friction Stir Consolidation as aluminum chips recycling process is analyzed. Specifically, an experimental campaign has been carried out with varying main process parameters. Three main aspects have been evaluated in order to highlight products quality and environmental impact of the process: (i) metallurgical and mechanical properties of the consolidated products; (ii) primary energy demand, as compared to conventional processes; (iii) forgeability of the consolidated products, as compared to parent material. Results revealed that a proper process parameters selection results in fully consolidated aluminum disk with satisfactory mechanical properties. Also, the new recycling strategy allows substantial energy savings with respect the conventional (remelting based) route.
机译:常规金属芯片回收过程是在重新熔化过程中具有低效率和永久性材料损失的能量密集型。固态回收允许直接回收金属碎片进入半成品。预计该过程类别将降低金属回收的环境性能。摩擦搅拌固结是一种新的固态技术,利用摩擦发热和严重的塑性变形来巩固芯片进入坯料。在该研究中,分析了摩擦搅拌固结作为铝芯片回收过程的可行性。具体而言,已经进行了实验活动,具有不同的主要过程参数。已经评估了三个主要方面,以突出产品的产品质量和环境影响:(i)综合产品的冶金和力学性能; (ii)与常规过程相比的主要能量需求; (iii)与母体材料相比,综合产品的可令人畏惧。结果表明,适当的工艺参数选择导致完全合并的铝盘,具有令人满意的机械性能。而且,新的回收策略允许尊重传统(基于重熔)路线的大量节能。

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