Experimental investigations on the state of the friction-welded joint zone in steel hybrid components after process-relevant thermo-mechanical loadings

As a part of the newly established Collaborative Research Center 1153 (SFB 1153) „Process chain for the manufacturing of hybrid high-performance components by tailored forming” at the Leibniz Universität Hannover, the Institute of Forming Technology and Machines (IFUM) examines the influence of ther...

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Hauptverfasser: Behrens, B.-A., Bouguecha, A., Vucetic, M., Peshekhodov, I., Matthias, T., Kolbasnikov, N., Sokolov, S., Ganin, S.
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creator Behrens, B.-A.
Bouguecha, A.
Vucetic, M.
Peshekhodov, I.
Matthias, T.
Kolbasnikov, N.
Sokolov, S.
Ganin, S.
description As a part of the newly established Collaborative Research Center 1153 (SFB 1153) „Process chain for the manufacturing of hybrid high-performance components by tailored forming” at the Leibniz Universität Hannover, the Institute of Forming Technology and Machines (IFUM) examines the influence of thermo-mechanical stresses on the reduced Young’s modulus as well as the hardness of hybrid (steel-steel compound) joined semi-finished products. Currently the expertise in the production of bulk metal formed parts is limited to mono-materials. For manufacturing parts of hybrid materials and also for the methods of the new process routes, practical experience has to be gained. The subproject C1 within the collaborative research center 1153 with the short title “Failure Prediction” deals with the question, if the hybrid semi-finished products fulfill the thermo-mechanical demands or if they fail at the joining zone (JZ) during forging. For this purpose, stresses similar to those in the process were imposed on hybrid semi-finished products by torsion tests by using the thermo-mechanical test system Gleeble 3800. Afterwards, the specimens were examined metallographically and by nanoindentations with the help of a TriboIndenter TI950. Thus, first knowledge on the behaviour of thermo-mechanical stresses on the reduced Young’s modulus and the hardness of hybrid joined semi-finished parts was gained.
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source AIP Journals Complete
subjects Collaboration
Forging
Mechanical tests
Modulus of elasticity
Nanoindentation
Stresses
Thermomechanical treatment
Torsion tests
Welded joints
title Experimental investigations on the state of the friction-welded joint zone in steel hybrid components after process-relevant thermo-mechanical loadings
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