Research Into Controlling the Material Flow for Electrohydraulic Forming Alloy Tubes by a Pulsed Magnet

Electrohydraulic forming is a kind of high-velocity forming process that can improve the formability of materials compared with quasi-static forming. Due to the lack of adequate material supplementation of the forming area, this method always faces problems such as uneven thinning and bursting when...

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Veröffentlicht in:IEEE transactions on applied superconductivity 2022-09, Vol.32 (6), p.1-5
Hauptverfasser: Zhang, Yi, Li, Xiaoxiang, Tang, Yinghao, Liu, Haixiang, Ouyang, Shaowei, Zhang, Zixuan, Cao, Quanliang, Li, Liang
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container_end_page 5
container_issue 6
container_start_page 1
container_title IEEE transactions on applied superconductivity
container_volume 32
creator Zhang, Yi
Li, Xiaoxiang
Tang, Yinghao
Liu, Haixiang
Ouyang, Shaowei
Zhang, Zixuan
Cao, Quanliang
Li, Liang
description Electrohydraulic forming is a kind of high-velocity forming process that can improve the formability of materials compared with quasi-static forming. Due to the lack of adequate material supplementation of the forming area, this method always faces problems such as uneven thinning and bursting when bulging tubes to required radial depths. To solve the above shortcomings and promote the material flow for the electrohydraulic forming process, this paper introduces an additional push coil to generate an axial electromagnetic force at the end of the tube. First, a finite element model was established to design the parameters of the push coil and the developed forming system. Then, a series of experiments using aluminum alloy tubes (AA6061-O) were conducted to verify the effectiveness of the proposed system. The results show that the limitation of the tube bulging depth can be increased by approximately 21.5%, and the thickness reduction can be reduced by more than 44% compared with conventional electrohydraulic forming. In addition, the forming morphology for tubes can be adjusted by the use of different combinations of discharge voltages for the push coil and exploding wire. The developed method and obtained results are of great value for improving the forming ability of electrohydraulic forming.
doi_str_mv 10.1109/TASC.2022.3149859
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Due to the lack of adequate material supplementation of the forming area, this method always faces problems such as uneven thinning and bursting when bulging tubes to required radial depths. To solve the above shortcomings and promote the material flow for the electrohydraulic forming process, this paper introduces an additional push coil to generate an axial electromagnetic force at the end of the tube. First, a finite element model was established to design the parameters of the push coil and the developed forming system. Then, a series of experiments using aluminum alloy tubes (AA6061-O) were conducted to verify the effectiveness of the proposed system. The results show that the limitation of the tube bulging depth can be increased by approximately 21.5%, and the thickness reduction can be reduced by more than 44% compared with conventional electrohydraulic forming. In addition, the forming morphology for tubes can be adjusted by the use of different combinations of discharge voltages for the push coil and exploding wire. 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Due to the lack of adequate material supplementation of the forming area, this method always faces problems such as uneven thinning and bursting when bulging tubes to required radial depths. To solve the above shortcomings and promote the material flow for the electrohydraulic forming process, this paper introduces an additional push coil to generate an axial electromagnetic force at the end of the tube. First, a finite element model was established to design the parameters of the push coil and the developed forming system. Then, a series of experiments using aluminum alloy tubes (AA6061-O) were conducted to verify the effectiveness of the proposed system. The results show that the limitation of the tube bulging depth can be increased by approximately 21.5%, and the thickness reduction can be reduced by more than 44% compared with conventional electrohydraulic forming. 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subjects Alloy tube forming
Aluminum base alloys
Coils
Design parameters
Discharges (electric)
Electrohydraulic forming
electromagnetic force
Electromagnetic forces
Electron tubes
Exploding wires
Finite element method
Force
forming ability
Lorentz covariance
Magnetic fields
material flow
Metals
Tubes
Wires
title Research Into Controlling the Material Flow for Electrohydraulic Forming Alloy Tubes by a Pulsed Magnet
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