Kjell Mattiasson
Showing 58 publications
On the prediction of failure in metal sheets with special reference to strain path dependence
Models for strain path independent necking prediction in LS-DYNA
Experiences from experimental and numerical springback studies of a semi-industrial forming tool
A comprehenisve analysis of benchmark 4: Pre-strain effect on springback of 2D draw bending
On the identification of kinematic hardening material parameters for accurate springback predictions
On the modeling of the unloading modulus for metal sheets
Chapter 1: FE-Models of the Sheet Metal Forming Processes
On Springback Prediction With Special Reference To Constitutive Modeling
Sheet metal forming processes: Constitutive modelling and numerical simulation
On the modeling of the unloading modulus for metal sheets
Uniaxial tension/compression tests and cyclic bending tests for hardening parameter identification
On constitutive modeling for springback analysis
Material modelling for accurate springback prediction
An efficient inverse approach for material parameter identification in a cyclic bending test
On the constitutive modeling of cyclic plasticity and its application to springback prediction
On the modelling of the bending-unbending behaviour for accurate springback predictions
MATERIAL MODELLING FOR ACCURATE SPRINGBACK PREDICTION
ON THE MODELLING OF THE BENDING-UNBENDING BEHAVIOUR AND ITS INFLUENCE ON SPRINGBACK RESULTS
FE-simulations – possibilities and limitations
Influence of constitutive equations on the accuracy of prediction in sheet metal forming simulation
Issues in connection to the prediction of strain localization in metal sheets
Issues in connection to the prediction of strain localization in metal sheets
On the role of strain rate in in FE-simulation of sheet forming processes
An evaluation of some recent yield criteria for industrial simulations of sheet forming processes
Theoretical and experimental sheet metal failure evaluation
Some observations on failure prediction in sheet metal forming
Oriented damage in ductile sheets: Constitutive modeling and numerical integration
Industrial experiences of stochastic simulations of sheet metal forming
On the prediction of plastic instability in metal sheets
Methods for forming limit prediction in ductile metal sheets
New non-quadratic yield locus models and their influence on the accuracy of the FEA
On necking prediction in ductile metal sheets
Identification of material hardening parameters by three-point bending of metal sheets
Some aspects on material modeling in industrial sheet forming simulations
FE-Simulation Of Hemming In The Automotive Industry
ON THE CHOICE OF YIELD CRITERION FOR INDUSTRIAL SHEET FORMING SIMULATIONS
On The Influence Of The Yield Locus Shape In The Simulation Of Sheet Stretch Forming
Material Characterization and Modeling for Industrial Sheet Forming Simulations
Three-dimensional simulation of hemming with the explicit FE-method
Implicit and dynamic solutions of blade forging using the finite element method
An Evaluation of a Dynamic Approach for Sheet Metal Forming Simulation
Numerical simulation of sheet metal forming with DYNA3D, a progress for meeting in Rome 1991-02-18
Sheet Metal Forming Modelled as a Quasi-Dynamic Process
A boundary element formulation in finite deformation plasticity using implicit integration
On the use of the boundary element method for elastoplastic large deformation problems
NUMIFORM 86 - Numerical Methods in Industrial Forming Processes
Finite element method for sheet metal stretching
Olinjärt elastiska balkar och ramar med analytiskt beskrivna elementsamband
Download publication list
You can download this list to your computer.
Filter and download publication list
As logged in user (Chalmers employee) you find more export functions in MyResearch.
You may also import these directly to Zotero or Mendeley by using a browser plugin. These are found herer:
Zotero Connector
Mendeley Web Importer
The service SwePub offers export of contents from Research in other formats, such as Harvard and Oxford in .RIS, BibTex and RefWorks format.