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Naji, M. |
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Motta, Antonella |
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Aletan, Dirar |
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Mohamed, Tarek |
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Ertürk, Emre |
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Taccardi, Nicola |
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Kononenko, Denys |
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Petrov, R. H. | Madrid |
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Alshaaer, Mazen | Brussels |
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Bih, L. |
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Casati, R. |
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Muller, Hermance |
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Kočí, Jan | Prague |
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Šuljagić, Marija |
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Kalteremidou, Kalliopi-Artemi | Brussels |
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Azam, Siraj |
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Ospanova, Alyiya |
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Blanpain, Bart |
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Ali, M. A. |
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Popa, V. |
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Rančić, M. |
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Ollier, Nadège |
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Azevedo, Nuno Monteiro |
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Landes, Michael |
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Rignanese, Gian-Marco |
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Geijselaers, Hubert
in Cooperation with on an Cooperation-Score of 37%
Topics
Publications (31/31 displayed)
- 2023Computing Sheet Rolling Instabilities with a Shell Finite Element Model
- 2022Discontinuous Galerkin FEM with Hot Element Addition for the Thermal Simulation of Additive Manufacturing
- 2021Efficient thermal simulation of large-scale metal additive manufacturing using hot element additioncitations
- 2021Efficient analysis of dense fiber reinforcement using a reduced embedded formulationcitations
- 2020Optimization of the Interacting StiffenedSkins and Ribs Made of Composite Materialscitations
- 2020A New in-Plane Bending Test to Determine Flow Curves for Materials with Low Uniform Elongationcitations
- 2019Experimental investigation of pinching phenomena in cold rolling of thin steel sheetscitations
- 20191D squeeze flow analysis of chopped long fibre thermoplastic composite
- 2018A level-set-based strategy for thickness optimization of blended composite structurescitations
- 2018Deformation mechanism in compression molding of discontinuous thermoplastic composites
- 2017Effect of flake distribution in mold on the flow during compression molding of unidirectional long fiber thermoplastic flakes
- 2016Interpolation of final geometry and result fields in process parameter spacecitations
- 2016The softened heat-affected zone in resistance spot welded tailor hardened boron steel: a material model for crash simulation
- 2016Plasticity and fracture modeling of the heat-affected zone in resistance spot welded tailor hardened boron steelcitations
- 2016Parameter Study for Friction Surface Cladding of AA1050 on AA2024-T351
- 2015Friction Surface Cladding of AA1050 on AA2024-T351; influence of clad layer thickness and tool rotation rate
- 2015Thermal and Flow Analysis of Friction Surface Cladding with Varying Clad Layer Thickness
- 2015Single scan vector prediction in selective laser meltingcitations
- 2015Cyclic shear behavior of austenitic stainless steel sheet
- 2015Large strain cyclic behavior of metastable austenic stainless steelcitations
- 2015Friction surface claddingcitations
- 2015Influence of ring growth rate on damage development in hot ring rollingcitations
- 2014Influence of feed rate on damage development in hot ring rollingcitations
- 2013Modeling of the Austenite-Martensite Transformation in Stainless and TRIP Steelscitations
- 2013Strain direction dependency of martensitic transformation in austenitic stainless steels: The effect of gamma-texturecitations
- 2013Cladding of Advanced Al Alloys Employing Friction Stir Weldingcitations
- 2013Multi-Stage FE Simulation of Hot Ring Rollingcitations
- 2012Free Surface Modeling of Contacting Solid Metal Flows Employing the ALE formulationcitations
- 2011Comparison of ALE finite element method and adaptive smoothed finite element method for the numerical simulation of friction stir welding
- 2007Numerical forming simulations and optimisation in advanced materials
- 2000Improvements in FE-analysis of real-life sheet metal forming
Places of action
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article
Friction surface cladding
Abstract
Friction surface cladding is a newly developed solid state cladding process to manufacture thin metallic layers on a substrate. In this study the influence of process conditions on the clad layer appearance and the mechanical properties of both the clad layer and the substrate were investigated. Thin layers of commercially pure aluminum (approximately 0.2 mm thick and 20 mm wide) could be successfully deposited on top of an AA2024-T351 substrate within a range of process conditions. The quality of the deposited layers was shown to be highly dependent on the process temperature. Homogeneous, well bonded and defect free layers could be deposited within a 300–420 °C temperature range. At lower process temperatures no continuous layers were deposited, whereas at higher process temperatures mixing of the clad material with the substrate took place. Thermal simulations confirmed the relation between the process conditions and the amount of heat generated. An analytical model was developed to predict the occurrence of mixing. Additional bending and corrosion experiments demonstrated the high bonding quality and proper intrinsic and sacrificial corrosion performance of the manufactured layers.