Finite element analysis of material deformation behaviour during DRECE: the sheet metal SPD process

The material deformation behaviour during the innovative SPD process called DRECE (Dual Rolls Equal Channel Extrusion) has been analysed by FEM simulations. In the process, a workpiece in the form of a strip is subjected to plastic deformation by passing through the angular channel; however, the wor...

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Veröffentlicht in:Archives of Civil and Mechanical Engineering 2023-05, Vol.23 (3), p.145, Article 145
Hauptverfasser: Tkocz, Marek, Kowalczyk, Karolina, Bulzak, Tomasz, Jabłońska, Magdalena B., Hawryluk, Marek
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container_issue 3
container_start_page 145
container_title Archives of Civil and Mechanical Engineering
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creator Tkocz, Marek
Kowalczyk, Karolina
Bulzak, Tomasz
Jabłońska, Magdalena B.
Hawryluk, Marek
description The material deformation behaviour during the innovative SPD process called DRECE (Dual Rolls Equal Channel Extrusion) has been analysed by FEM simulations. In the process, a workpiece in the form of a strip is subjected to plastic deformation by passing through the angular channel; however, the workpiece dimensions remain the same after a pass is finished. Performing consecutive passes allow for increasing the effective strain in the material to a required level. In the conducted simulations two various channel angles (108° and 113°) have been taken into consideration, as well as two processing routes, A and C (without and with turning the strip upside-down between consecutive passes, respectively). The analysis of simulation results has revealed that significant strain and stress inhomogeneities across the strip thickness are generated in a single DRECE pass. The die design (the inner and outer corner radius) and friction conditions affect the material flow, reducing significantly the shear strain in the near-surface regions of the strip. The strain inhomogeneity can be effectively reduced by choosing the processing route C. The strain distributions and the corresponding tensile test results have confirmed that the smaller channel die angle allows to generate larger strain and higher strength of the strip but also reduces its ductility more than the die setup with the larger channel die angle.
doi_str_mv 10.1007/s43452-023-00671-1
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subjects Civil Engineering
Deformation
Engineering
Finite element method
Friction
Inhomogeneity
Investigations
Low carbon steel
Mechanical Engineering
Metal forming
Metal sheets
Microscopy
Original Article
Plastic deformation
Shear strain
Simulation
Strip
Structural Materials
Temperature effects
Tensile tests
Workpieces
title Finite element analysis of material deformation behaviour during DRECE: the sheet metal SPD process
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