Numerical simulation study on monoblock casting process of ultra-slender structural components and experimental validation

Substrate, a typical ultra-slender aluminum alloy structural components with a large aspect ratio and complex internal structure, was traditionally manufactured by re-assembly and sub-welding. In order to realize the monoblock casting of the substrate, the Pro/E software was utilized to carry out th...

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Main Authors: Xu-liang Zhang, Xiu-mei Chi, Bo-dong Zeng
Format: Article
Language:English
Published: Foundry Journal Agency 2017-11-01
Series:China Foundry
Subjects:
Online Access:http://ff.foundryworld.com/uploadfile/2017110132651709.pdf
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spelling doaj-6a870ca964ab4c9093870dce0e34409a2020-11-24T22:58:52ZengFoundry Journal AgencyChina Foundry1672-64211672-64212017-11-0114544945510.1007/s41230-017-7176-xNumerical simulation study on monoblock casting process of ultra-slender structural components and experimental validationXu-liang Zhang0Xiu-mei Chi1Bo-dong Zeng2Shanghai Spaceflight Precision Machinery Institute, Shanghai 201600, ChinaShanghai Spaceflight Precision Machinery Institute, Shanghai 201600, ChinaShanghai Spaceflight Precision Machinery Institute, Shanghai 201600, ChinaSubstrate, a typical ultra-slender aluminum alloy structural components with a large aspect ratio and complex internal structure, was traditionally manufactured by re-assembly and sub-welding. In order to realize the monoblock casting of the substrate, the Pro/E software was utilized to carry out three-dimensional (3D) modeling of the substrate casting, and the filling and solidification processes were calculated, as well as the location and types of casting defects were predicted by the casting simulation software Anycasting. Results of the filling process simulation show that the metal liquid is distributed into each gap runner evenly and smoothly. There is no serious vortex phenomenon in the mold cavity, and the trajectory of the virtual particles is clear. Results of the solidification process simulation show that shrinkage cavities mainly appear at the junction of gap runners and the rail surface of the substrate. The average deformation is 0.6 mm in X direction, 3.8 mm in Y direction, and 8.2 mm in Z direction. Based on the simulation results, the casting process of the substrate was optimized, and qualified castings were successfully produced, which will provide a reference for the casting process design of other ultra-slender aluminum alloy structural components.http://ff.foundryworld.com/uploadfile/2017110132651709.pdfaluminum alloy structural componentnumerical simulationdefect prediction
collection DOAJ
language English
format Article
sources DOAJ
author Xu-liang Zhang
Xiu-mei Chi
Bo-dong Zeng
spellingShingle Xu-liang Zhang
Xiu-mei Chi
Bo-dong Zeng
Numerical simulation study on monoblock casting process of ultra-slender structural components and experimental validation
China Foundry
aluminum alloy structural component
numerical simulation
defect prediction
author_facet Xu-liang Zhang
Xiu-mei Chi
Bo-dong Zeng
author_sort Xu-liang Zhang
title Numerical simulation study on monoblock casting process of ultra-slender structural components and experimental validation
title_short Numerical simulation study on monoblock casting process of ultra-slender structural components and experimental validation
title_full Numerical simulation study on monoblock casting process of ultra-slender structural components and experimental validation
title_fullStr Numerical simulation study on monoblock casting process of ultra-slender structural components and experimental validation
title_full_unstemmed Numerical simulation study on monoblock casting process of ultra-slender structural components and experimental validation
title_sort numerical simulation study on monoblock casting process of ultra-slender structural components and experimental validation
publisher Foundry Journal Agency
series China Foundry
issn 1672-6421
1672-6421
publishDate 2017-11-01
description Substrate, a typical ultra-slender aluminum alloy structural components with a large aspect ratio and complex internal structure, was traditionally manufactured by re-assembly and sub-welding. In order to realize the monoblock casting of the substrate, the Pro/E software was utilized to carry out three-dimensional (3D) modeling of the substrate casting, and the filling and solidification processes were calculated, as well as the location and types of casting defects were predicted by the casting simulation software Anycasting. Results of the filling process simulation show that the metal liquid is distributed into each gap runner evenly and smoothly. There is no serious vortex phenomenon in the mold cavity, and the trajectory of the virtual particles is clear. Results of the solidification process simulation show that shrinkage cavities mainly appear at the junction of gap runners and the rail surface of the substrate. The average deformation is 0.6 mm in X direction, 3.8 mm in Y direction, and 8.2 mm in Z direction. Based on the simulation results, the casting process of the substrate was optimized, and qualified castings were successfully produced, which will provide a reference for the casting process design of other ultra-slender aluminum alloy structural components.
topic aluminum alloy structural component
numerical simulation
defect prediction
url http://ff.foundryworld.com/uploadfile/2017110132651709.pdf
work_keys_str_mv AT xuliangzhang numericalsimulationstudyonmonoblockcastingprocessofultraslenderstructuralcomponentsandexperimentalvalidation
AT xiumeichi numericalsimulationstudyonmonoblockcastingprocessofultraslenderstructuralcomponentsandexperimentalvalidation
AT bodongzeng numericalsimulationstudyonmonoblockcastingprocessofultraslenderstructuralcomponentsandexperimentalvalidation
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