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Selection of Design Scheme for an Ultrahigh-Pressure Hydrostatic Extrusion Cylinder

In this study, the mechanical models of a multilayer combined extrusion cylinder and a steel-wire-winding extrusion cylinder were established and compared using a finite element simulation and existing experimental cases. This work provides theoretical support for the selection of an ultrahigh-press...

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Published in:	Actuators 2023-10, Vol.12 (10), p.369
Main Authors:	Yang, Jian, Zhang, Lei, Zhang, Jun, Wang, Hao, Zhang, Dong, Luo, Yuanxin, Wang, Yongqin
Format:	Article
Language:	English
Subjects:	Aluminum Comparative analysis Cylinders Deformation Design parameters Finite element method Hydrostatic extrusion Manufacturing Mathematical optimization mathematical optimization model multilayer combined extrusion cylinder Multilayers Optimization models Shear strength Steel wire steel-wire-winding extrusion cylinder Stress analysis Stress state ultrahigh-pressure hydrostatic extrusion cylinder Winding
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container_title	Actuators
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creator	Yang, Jian Zhang, Lei Zhang, Jun Wang, Hao Zhang, Dong Luo, Yuanxin Wang, Yongqin
description	In this study, the mechanical models of a multilayer combined extrusion cylinder and a steel-wire-winding extrusion cylinder were established and compared using a finite element simulation and existing experimental cases. This work provides theoretical support for the selection of an ultrahigh-pressure extrusion cylinder. Comparative analysis of an ultrahigh-pressure extrusion structure was carried out. The mathematical optimization model is established based on the mechanical model, and the ultimate bearing capacities of the schemes are compared. Additionally, the winding mode and the number of core layers of the extrusion cylinder are compared and analyzed, which provides a theoretical basis for the parameter design of the steel-wire-winding ultrahigh-pressure extrusion cylinder. This work holds good theoretical significance and practical value for the promotion and application of ultrahigh-pressure hydrostatic extrusion technology.
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subjects	Aluminum Comparative analysis Cylinders Deformation Design parameters Finite element method Hydrostatic extrusion Manufacturing Mathematical optimization mathematical optimization model multilayer combined extrusion cylinder Multilayers Optimization models Shear strength Steel wire steel-wire-winding extrusion cylinder Stress analysis Stress state ultrahigh-pressure hydrostatic extrusion cylinder Winding
title	Selection of Design Scheme for an Ultrahigh-Pressure Hydrostatic Extrusion Cylinder
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