The Multi-Scale FEM Simulation of Wire Fracture during Drawing of Perlitic Steel

Andriy Milenin; Zbigniew Muskalski; Piotr Kustra

doi:10.4028/www.scientific.net/MSF.575-578.1433

Paper Titles

Analysis on Section Effect of Heavy Plate by Finite Element Method during Controlled Cooling
p.1407

Effects of Vanadium and Rare-Earth on Carbides and Properties of High Chromium Cast Iron
p.1414

The Multi Physical Fields Modeling for 7B50 Aluminum Alloy Semi-Continuous Casting Process
p.1422

Development and Application of Experimental Facilities for Steel Forming
p.1428

The Multi-Scale FEM Simulation of Wire Fracture during Drawing of Perlitic Steel
p.1433

Research and Simulation of Influence of Different Pressing Velocity on Powder Metallurgic Products Properties
p.1439

Impact of Rolling Conditions on Propagation of a Potential Crack
p.1445

Applications of Dyes in Material Science Research
p.1451

Finite Element Analysis on Microstructure Evolution of Hot Ring Rolling Process
p.1455

HomeMaterials Science ForumMaterials Science Forum Vols. 575-578The Multi-Scale FEM Simulation of Wire Fracture...

The Multi-Scale FEM Simulation of Wire Fracture during Drawing of Perlitic Steel

Abstract:

The fracture development during wire drawing operation is an important phenomenon governing the productivity as well as the mechanical properties of the drawn wire. The wire drawing processes was investigated in present paper in two separate levels - using the 2-dimensional rigid-plastic finite element method (macro-level) and modelling the microstructure changes (micro-level) by the Representative Volume Elements (RVEs). To predict fracture initiation the phenomenological theory of fracture is used. The influence of initial cementite lamellas orientation on triaxity factor and localization of deformation in micro-level is investigated. Obtained results are helpful for a fundamental understanding of pearlitic deformation during development of high strength steel wires for tire cord applications.