Numerical Simulation for Thick-Walled Hollow Axle during Cross Wedge Rolling

Yang Jiang; Bao Yu Wang; Zheng Huan Hu; Jian Guo Lin

doi:10.4028/www.scientific.net/AMR.337.270

Paper Titles

CV Control Chart Using GWMA Technique
p.247

Effect of the Welding Heat Input on Residual Stresses in Butt-Weld of High-Speed Train
p.255

Numerical Simulation on Forced Revolving Moving Boundary Problem Using Incompressible SPH (ISPH)
p.262

Multi-Physics Simulation of Amorphous Silicon Thin-Film Deposition in Plasma Enhanced Chemical Vapor Reactors
p.266

Numerical Simulation for Thick-Walled Hollow Axle during Cross Wedge Rolling
p.270

Integrative Technology Evaluation Model (ITEM) for Selective Laser Melting (SLM)
p.274

Studies on Corrosion Behavior of Q235 Steel by Iron Bacteria, Sulfate-Reducing Bacteria and Total General Bacteria in Sedimentary Water of Storage Tank
p.281

Characterization the Relationship between Rheology Behavior and Moleculer Weight of Natural Rubber with Different Protein Content
p.285

Comparative Study of the Two Bar Billets for Bevel Gear Based on Multi-Objective Comprehensive Assessment
p.289

HomeAdvanced Materials ResearchAdvanced Materials Research Vol. 337Numerical Simulation for Thick-Walled Hollow Axle...

Numerical Simulation for Thick-Walled Hollow Axle during Cross Wedge Rolling

Abstract:

The paper investigates a process of cross wedged rolling (CWR) for manufacturing thick-walled hollow axles. A finite element numerical model coupled deformation and heat transfer of CWR is established using commercial finite element software DEFORM-3D. The rolling process of hollow axle during CWR is simulated successfully. The stress, strain and temperature distributions of workpiece are obtained and analyzed. The simulation results show that forming thick-walled hollow axles through CWR is feasible.