Experimental characterization and modeling of the hardening behavior of the sheet steel LH800

M. Noman, T. Clausmeyer, C. Barthel, B. Svendsen, Han Huetink, M. van Riel

Research output: Contribution to journalArticleAcademicpeer-review

31 Citations (Scopus)

Abstract

In complex forming processes, sheet metal undergoes large plastic deformations involving significant induced flow anisotropy resulting from the development of persistent oriented (planar) dislocation structures. The aim of the present work is the formulation and identification of a phenomenological model which accounts for the effect of the evolution of this oriented dislocation microstructure on the anisotropic hardening behavior. The model accounts for changes in the size, center, and shape, of the yield surface associated with isotropic, kinematic, and cross hardening, respectively. Identification of the model for the ferritic sheet metal steel LH800 is carried out with the help of shear, reverse shear, and tension–shear tests. The identified model has been validated using it to predict the stress–strain behavior of the material along different tension–shear loading paths and comparison with analogous experimental results. The results and in particular the comparison of theoretical predictions with experimental results clearly demonstrate the need of including cross hardening effects in the modeling of sheet metals like LH800.
Original languageUndefined
Pages (from-to)2515-2526
Number of pages12
JournalMaterials science and engineering
Volume527
Issue number10-11
DOIs
Publication statusPublished - 2010

Keywords

  • IR-69769
  • Material modeling
  • Induced flow anisotropy
  • METIS-263561
  • Metal forming
  • Parameter identification
  • Cross hardening

Cite this

Noman, M., Clausmeyer, T., Barthel, C., Svendsen, B., Huetink, H., & van Riel, M. (2010). Experimental characterization and modeling of the hardening behavior of the sheet steel LH800. Materials science and engineering, 527(10-11), 2515-2526. https://doi.org/10.1016/j.msea.2009.12.013
Noman, M. ; Clausmeyer, T. ; Barthel, C. ; Svendsen, B. ; Huetink, Han ; van Riel, M. / Experimental characterization and modeling of the hardening behavior of the sheet steel LH800. In: Materials science and engineering. 2010 ; Vol. 527, No. 10-11. pp. 2515-2526.
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abstract = "In complex forming processes, sheet metal undergoes large plastic deformations involving significant induced flow anisotropy resulting from the development of persistent oriented (planar) dislocation structures. The aim of the present work is the formulation and identification of a phenomenological model which accounts for the effect of the evolution of this oriented dislocation microstructure on the anisotropic hardening behavior. The model accounts for changes in the size, center, and shape, of the yield surface associated with isotropic, kinematic, and cross hardening, respectively. Identification of the model for the ferritic sheet metal steel LH800 is carried out with the help of shear, reverse shear, and tension–shear tests. The identified model has been validated using it to predict the stress–strain behavior of the material along different tension–shear loading paths and comparison with analogous experimental results. The results and in particular the comparison of theoretical predictions with experimental results clearly demonstrate the need of including cross hardening effects in the modeling of sheet metals like LH800.",
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Noman, M, Clausmeyer, T, Barthel, C, Svendsen, B, Huetink, H & van Riel, M 2010, 'Experimental characterization and modeling of the hardening behavior of the sheet steel LH800' Materials science and engineering, vol. 527, no. 10-11, pp. 2515-2526. https://doi.org/10.1016/j.msea.2009.12.013

Experimental characterization and modeling of the hardening behavior of the sheet steel LH800. / Noman, M.; Clausmeyer, T.; Barthel, C.; Svendsen, B.; Huetink, Han; van Riel, M.

In: Materials science and engineering, Vol. 527, No. 10-11, 2010, p. 2515-2526.

Research output: Contribution to journalArticleAcademicpeer-review

TY - JOUR

T1 - Experimental characterization and modeling of the hardening behavior of the sheet steel LH800

AU - Noman, M.

AU - Clausmeyer, T.

AU - Barthel, C.

AU - Svendsen, B.

AU - Huetink, Han

AU - van Riel, M.

PY - 2010

Y1 - 2010

N2 - In complex forming processes, sheet metal undergoes large plastic deformations involving significant induced flow anisotropy resulting from the development of persistent oriented (planar) dislocation structures. The aim of the present work is the formulation and identification of a phenomenological model which accounts for the effect of the evolution of this oriented dislocation microstructure on the anisotropic hardening behavior. The model accounts for changes in the size, center, and shape, of the yield surface associated with isotropic, kinematic, and cross hardening, respectively. Identification of the model for the ferritic sheet metal steel LH800 is carried out with the help of shear, reverse shear, and tension–shear tests. The identified model has been validated using it to predict the stress–strain behavior of the material along different tension–shear loading paths and comparison with analogous experimental results. The results and in particular the comparison of theoretical predictions with experimental results clearly demonstrate the need of including cross hardening effects in the modeling of sheet metals like LH800.

AB - In complex forming processes, sheet metal undergoes large plastic deformations involving significant induced flow anisotropy resulting from the development of persistent oriented (planar) dislocation structures. The aim of the present work is the formulation and identification of a phenomenological model which accounts for the effect of the evolution of this oriented dislocation microstructure on the anisotropic hardening behavior. The model accounts for changes in the size, center, and shape, of the yield surface associated with isotropic, kinematic, and cross hardening, respectively. Identification of the model for the ferritic sheet metal steel LH800 is carried out with the help of shear, reverse shear, and tension–shear tests. The identified model has been validated using it to predict the stress–strain behavior of the material along different tension–shear loading paths and comparison with analogous experimental results. The results and in particular the comparison of theoretical predictions with experimental results clearly demonstrate the need of including cross hardening effects in the modeling of sheet metals like LH800.

KW - IR-69769

KW - Material modeling

KW - Induced flow anisotropy

KW - METIS-263561

KW - Metal forming

KW - Parameter identification

KW - Cross hardening

U2 - 10.1016/j.msea.2009.12.013

DO - 10.1016/j.msea.2009.12.013

M3 - Article

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SP - 2515

EP - 2526

JO - Materials science and engineering

JF - Materials science and engineering

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