Accurate plane strain compression test validation

被引:0
|
作者
Neag, Adriana [1 ,2 ]
Hu, Qifan [1 ]
Balan, Tudor [1 ]
机构
[1] HESAM Univ, Univ Lorraine, Arts & Metiers Inst Technol, LCFC, F-57070 Metz, France
[2] Tech Univ, Dept Mat Sci & Engn, Cluj Napoca 400641, Romania
关键词
D O I
10.1088/1757-899X/1238/1/012050
中图分类号
O646 [电化学、电解、磁化学];
学科分类号
081704 ;
摘要
Large strain characterization of sheet metals has become increasingly important with the generalization of advanced high strength steels, for which the tensile test provides data over a very reduced strain range. Among the numerous alternative characterization tests, the plane strain compression test (PSCT) requires a small amount of material and classical testing machine and acquisition. PSCT was mainly used for hot forming characterization, but recently it has been proved sufficiently accurate for application in cold metal forming. This work provides an in-depth validation of the PSCT by means of the finite element method. When converting the PSCT force- displacement curve into a stress-strain curve (flow curve), several analytical corrections are applied. Several sets of such corrections terms were proposed in the literature, some of which are consistently used by all authors, while others being only used in some papers. The FE simulation of the test was used in order to validate these correction terms and their hypotheses. The originality of the approach is the design of a sequence of test configurations which allow for the individual validation of each and every one of the correction terms concerning the effect of several test parameters. The FE simulations showed that the analytical exploitation of the PSCT provides a very good accuracy. They helped identifying the most suitable correction terms to consider.
引用
收藏
页数:6
相关论文
共 50 条
  • [21] Strain localization in sand: Plane strain versus triaxial compression
    Alshibli, Khalid A.
    Batiste, Susan N.
    Sture, Stein
    Journal of Geotechnical and Geoenvironmental Engineering, 2003, 129 (06) : 483 - 494
  • [22] STRAIN DISTRIBUTION PATTERNS DURING PLANE-STRAIN COMPRESSION
    BEYNON, JH
    SELLARS, CM
    JOURNAL OF TESTING AND EVALUATION, 1985, 13 (01) : 28 - 38
  • [23] Using numerical simulation to model the rheological behaviour of aluminum alloys with plane strain compression test
    Apports de la simulation numerique pour l'identification du comportement rheologique des alliages d'aluminium par essai de bipoinconnement
    Gelin, J.C., 1600, Publ by Editions de Physique, Les Ulis, France (04):
  • [24] Modelling the hot plane strain compression test Part I - Effect of specimen geometry, strain rate, and friction on deformation
    Mirza, MS
    Sellars, CM
    MATERIALS SCIENCE AND TECHNOLOGY, 2001, 17 (09) : 1133 - 1141
  • [25] Failure characteristics of concrete in plane strain compression
    VanGeel, HJGM
    Bongers, JPW
    ADVANCES IN FRACTURE RESEARCH, VOLS 1-6, 1997, : 965 - 972
  • [26] Localization of strains in plane strain compression of sand
    Finno, RJ
    Viggiani, G
    Harris, WW
    Mooney, MA
    LOCALIZATION AND BIFURCATION THEORY FOR SOILS AND ROCKS, 1998, : 249 - 257
  • [27] PLANE-STRAIN COMPRESSION TESTING OF POLYMERS
    WILLIAMS, JG
    TRANSACTIONS AND JOURNAL OF THE PLASTICS INSTITUTE, 1967, 35 (117): : 505 - &
  • [28] Plane strain compression of aluminium alloy sheets
    Rees, David W. A.
    MATERIALS & DESIGN, 2012, 39 : 495 - 503
  • [29] Plane strain compression of high silicon steel
    Calvillo, P. R.
    Ros-Yanez, T.
    Ruiz, D.
    Colas, R.
    Houbaert, Y.
    MATERIALS SCIENCE AND TECHNOLOGY, 2006, 22 (09) : 1105 - 1111
  • [30] PLANE-STRAIN COMPRESSION OF ALUMINUM CRYSTALS
    HOSFORD, WF
    ACTA METALLURGICA, 1966, 14 (09): : 1085 - &