Plane Strain Test for Metal Sheet Characterization

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This article shows the influence of a plane strain test specimen geometry on the measurable strain field and the influence of free edge effects over the stress computation. The experimental strain field distribution is measured over the whole deformable zone of a plane strain test specimen by an optical strain gauge. The chosen material is the DC06 IF steel of 0.8 mm thickness. The stress field is computed for several geometries at different strain levels by a Finite Element (FE) commercial code (Samcef ®). The results show that the stress field is sensitive to the specimen’s geometry and also to the tested material (strain field behavior is independent of material) and, based on results, an optimal specimen geometry is proposed in order to minimized the stress computation error.

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Edited by:

F. Micari, M. Geiger, J. Duflou, B. Shirvani, R. Clarke, R. Di Lorenzo and L. Fratini

Pages:

135-142

Citation:

P. Flores et al., "Plane Strain Test for Metal Sheet Characterization", Key Engineering Materials, Vol. 344, pp. 135-142, 2007

Online since:

July 2007

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$38.00

[1] R. Hill: The Mathematical Theory of Plasticity (The Oxford Eng Sciences Series, 1950).

[2] T. Kuwabara, A. Van Beal, E. Iizuka: Acta Materialia Vol. 50 (2002), pp.3717-3729.

[3] P. Flores, P. Moureaux, A. -M. Habraken: Material Identification using a Bi-axial Test Machine (Trans Tech Publications, Switzerland 2005).

DOI: https://doi.org/10.4028/www.scientific.net/amm.3-4.91

[4] P. Flores: Development of Experimental Equipment and Identification Procedures for Sheet Metal Constitutive Laws (PhD Thesis, University of Liege - Belgium, 2005).

[5] P. Flores, E. Rondia, A. -M. Habraken: International Journal of Forming Processes, Special Issue (2005) pp.117-137.

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