Large strain flow curve identification for sheet metal

被引:17
作者
Coppieters, S. [1 ]
Traphoener, H. [2 ]
Stiebert, F. [2 ]
Balan, T. [3 ]
Kuwabara, T. [4 ]
Tekkaya, A. E. [2 ]
机构
[1] Katholieke Univ Leuven, Dept Mat Engn, Ghent Technol Campus,Gebroeders De Smetstr 1, B-9000 Ghent, Belgium
[2] TU Dortmund Univ, Inst Forming Technol & Lightweight Components IUL, Dortmund, Germany
[3] HESAM Univ, Arts & Metiers Inst Technol, Univ Lorraine, LCFC, F-57000 Metz, France
[4] Tokyo Univ Agr & Technol, Div Adv Mech Syst Engn, Inst Engn, Fuchu, Tokyo, Japan
关键词
Large strain flow curve; In-plane torsion test; Post-necking tensile test; Plane strain compression test; Hydraulic bulge test; NECKING HARDENING BEHAVIOR; HYDRAULIC BULGE TEST; COMPRESSION TEST; STRESS; PLANE; ACCURACY; WORK; TENSION; DEFORMATION; CRITERION;
D O I
10.1016/j.jmatprotec.2022.117725
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
The large strain flow curve is an essential input for the calibration of a myriad of plasticity models required for accurately simulating sheet metal forming processes and the mechanical performance of formed components. Studies on large strain flow curve identification can be divided in three main categories. The first class of experiment sgenerate statically determinate stress states which unambiguously correlate analytically to the external load and measured strains, hence enable a direct measurement of the large strain flow curve. The second category relies on the intermittently measured flow stress using pre-strained samples to construct the large strain flow curve. The third category consists of methods that minimize the discrepancy between the experimentally acquired and the numerically computed measurand to inversely identify a chosen hardening law representing the large strain flow curve. The paper presents an overview of the state-of-the-art methods to acquire the large strain flow curve of sheet metal. A selected number of methods are reviewed and recent developments are discussed in detail. Finally, an objective assessment of the selected methods is pursued by applying them to a DP600 steel sheet.
引用
收藏
页数:19
相关论文
共 97 条
[1]  
Aksenov S, 2015, J Chem Techn Metallurgy, V50, P644
[2]   Revisiting the Fundamentals and Capabilities of the Stack Compression Test [J].
Alves, L. M. ;
Nielsen, C. V. ;
Martins, P. A. F. .
EXPERIMENTAL MECHANICS, 2011, 51 (09) :1565-1572
[3]   Analytical and experimental study of frictional behavior in through-thickness compression test [J].
An, YG ;
Vegter, H .
JOURNAL OF MATERIALS PROCESSING TECHNOLOGY, 2005, 160 (02) :148-155
[4]  
ARONOFSKY J, 1951, J APPL MECH-T ASME, V18, P75
[5]   EVALUATING HARDENING LAWS AT LARGE TENSILE STRAINS IN SHEET SPECIMENS [J].
AYRES, RA .
METALLURGICAL TRANSACTIONS A-PHYSICAL METALLURGY AND MATERIALS SCIENCE, 1983, 14 (11) :2269-2275
[6]   BUCKLING IN THE PLANE TORSION TEST [J].
BAUER, M .
INGENIEUR ARCHIV, 1987, 57 (01) :39-50
[7]  
Bauer M., 1989, THESIS U STUTTG STUT, DOI [10.1007/978-3-642-83780-7, DOI 10.1007/978-3-642-83780-7]
[8]  
Becker N., 1989, CIRP ANN-MANUF TECHN, V38, P227, DOI 10.1016/S0007-8506(07)62691-2
[9]  
Bridgman P.W., 1952, STUDIES LARGE PLASTI
[10]   Determination of uniaxial large-strain workhardening of high-strength steel sheets from in-plane stretch-bending testing [J].
Capilla, Gustavo ;
Hamasaki, Hiroshi ;
Yoshida, Fusahito .
JOURNAL OF MATERIALS PROCESSING TECHNOLOGY, 2017, 243 :152-169