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塑性变形过程对Al-5Mg合金残余应力和硬度的影响

Influence of the Plastic Deformation Process on the Residual Stresses and Hardness of an Al-5Mg Alloy.

作者信息

Samara Fayez, Goanta Viorel, Istrate Bogdan, Alkisswani Layth, Munteanu Corneliu, Cosau Roxana

机构信息

Mechanical Engineering, Mechatronics and Robotics Department, Mechanical Engineering Faculty, "Gheorghe Asachi" Technical University of Iasi, 700050 Iasi, Romania.

Technical Sciences Academy of Romania, 26 Dacia Blvd., 030167 Bucharest, Romania.

出版信息

Materials (Basel). 2024 Jul 21;17(14):3593. doi: 10.3390/ma17143593.

DOI:10.3390/ma17143593
PMID:39063885
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC11278815/
Abstract

The service behavior of ductile metallic materials, when they have previously undergone technological plastic deformation, depends on the deformation conditions. These are represented, among others, by the deformation rate, the process temperature, the applied pressures, and the introduced stresses, as well as other process variables. The investigation of the mechanical properties obtained after plastic deformation is an important means that contains two characteristics: on the one hand, to determine to what extent the parameters of the technological manufacturing process influence the main characteristics of the final component; and, on the other hand, on the basis of these characteristics, to analyze whether the component subjected to plastic deformation will be able to function reliably and safely. In the present work, an experimental study was made of the residual stresses developed and hardnesses obtained both in the immediate vicinity of a highly plastically deformed area and in an area previously obtained by rolling, without additional plastic deformation. For the determination of the residual stresses, the tensiometric rosette drilling method was used. By determining the same quantities in a non-plastically deformed area, significant changes in the values of the two quantities in the plastically deformed area were found. An increase in the maximum principal normal stresses by approx. 60 MPa and an increase in the Rockwel hardness by approx. 10 HRC was found. A sample was taken from the area under a plastic deformed circular shape, and was analyzed microscopically.

摘要

韧性金属材料在先前经历工艺塑性变形后的服役行为取决于变形条件。这些条件尤其包括变形速率、加工温度、施加压力、引入应力以及其他工艺变量。对塑性变形后获得的力学性能进行研究是一种重要手段,它具有两个特点:一方面,确定工艺制造过程的参数在多大程度上影响最终部件的主要特性;另一方面,基于这些特性,分析经过塑性变形的部件是否能够可靠且安全地运行。在本工作中,对在高度塑性变形区域紧邻处以及先前通过轧制获得且无额外塑性变形的区域中产生的残余应力和获得的硬度进行了实验研究。为了测定残余应力,采用了张力应变片钻孔法。通过在非塑性变形区域测定相同的量,发现塑性变形区域中这两个量的值有显著变化。发现最大主正应力增加了约60MPa,洛氏硬度增加了约10HRC。从塑性变形圆形区域下取出一个样品,并进行了微观分析。

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本文引用的文献

1
Remarks on residual stress measurement by hole-drilling and electronic speckle pattern interferometry.关于钻孔法和电子散斑干涉法测量残余应力的评述
ScientificWorldJournal. 2014;2014:487149. doi: 10.1155/2014/487149. Epub 2014 Jul 6.