基于仿真的铝回收处理厂分析设计

O. Ojo, T. Olugbade, B. O. Omiyale
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引用次数: 2

摘要

随意丢弃饮料罐对环境造成了极大的威胁,造成洪水、填埋、排水堵塞,导致土地污染,有时还会发生事故。因此,有必要设计一种能够将这些废物转化为可用产品的系统。本研究采用有限元分析方法,对铝回收处理厂进行了基于仿真的分析设计,以确定设计在制造前的效率和可靠性。模拟结果表明,在载荷作用下,炉外壳体最大应力为6.323 MPa,位移为0.0795 mm。机器部件的应力小于所选材料的屈服强度,使机器配合和工作。分析结果与数值分析结果一致;因此,在对设计进行分析和评价的基础上,概念设计适合制造。经过设计分析和仿真,发现所设计的回收工艺装置零件的挠度和应力可忽略不计,远低于所选材料的屈服强度。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Simulation-based analytical design for aluminium recycling processing plant
Indiscriminate disposal of beverage cans as waste poses a great threat to the environment, causing flooding, landfill, and blockage of drainages, leading to land pollution and sometimes accident. Hence, there is a need to design a system capable of converting these wastes into usable products. In this study, a simulation-based analytical design for aluminum recycling processing plant was carried out to ascertain the efficiency and reliability of the design before fabrication using finite element analysis (FEA) approach. The simulation results revealed a lesser maximum stress of 6.323 MPa for the furnace outer casing under the action of load with a displacement of 0.0795 mm. The stress of the machine components is less than the yield strength of the selected materials, making the machine fit and workable. The analytical results agree with the numerical analysis; hence the conceptual design is fit for fabrication based on the design analysis and evaluation. After the design analysis and simulation, the designed recycling process plant parts are found to be under negligible deflection and stress which is far below the yield strength of chosen materials.
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