Use of computer simulation for modernization technology of aluminum alloys hot die forging

被引:0
作者
I. L. Konstantinov
S. B. Sidelnikov
D. S. Voroshilov
S. V. Belyaev
Yu. V. Gorokhov
I. Yu. Gubanov
V. I. Belokopytov
E. V. Ivanov
M. V. Voroshilova
机构
[1] Siberian Federal University,Department of Metal forming, School of Non
[2] Siberian Federal University,Ferrous Metals and Material Science
[3] Siberian Federal University,Department of Foundry production, School of Non
来源
The International Journal of Advanced Manufacturing Technology | 2020年 / 107卷
关键词
Metal forming; Die forging; Isothermal forging; Die; Computer simulation; Temperature; Aluminum alloys;
D O I
暂无
中图分类号
学科分类号
摘要
A methodology for the modernization of technological processes for the hot forging of aluminum alloy forgings based on computer simulation has been developed. The modernization procedure is outlined, including the analysis of an analogous technological process, the development of a virtual technological process structure, the creation of forging and die models in the SolidWorks program, the formulation of a computer simulation problem, the input of simulation parameters, the launch and analysis of a computer technology model, and the development of recommendations for modernizing an existing process with subsequent pilot testing of technology. An example of the methodology was the die forging technology “Rack” made of 5083 alloy, which is a single-plane complex-shaped panel with stiffeners. The analysis of the technology-analogue made it possible to formulate the problem of finding the possibility of reducing operations. Temperature, speed, and power deformation modes were introduced, which were a deformation rate of 0.3 mm/s, billet-heating temperature 450 °C, and the temperature of a die 400 °C. The output was a database of the process. At the end of the virtual experiment, the technology was tested on laboratory equipment, and a comparative analysis of the two technologies was carried out, which presented the advantages of the proposed isothermal die forging technology and developed recommendations for updating the existing technology. The transition to isothermal die forging will reduce the number of passes from three to one. All this will lead to an increase in metal utilization rate from 0.44 to 0.77.
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页码:1641 / 1647
页数:6
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