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Fatigue behavior of spot-welded joints in air and under corrosive environments

A bstract The main aim of the project was to evaluate the influence of combined effects of fatigue loading and exposure to cyclic corrosion testing on the corrosion and the fatigue resistances of coated steel-based materials joined by resistance spot welding. Seven steel-based materials including co...

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Published in:Welding in the world 2016-01, Vol.60 (6), p.1231-1245
Main Authors: Thierry, Dominique, Vucko, Flavien, Luckeneder, Gerald, Weber, Bastien, Dosdat, Laurence, Bschorr, Thomas, Rother, Klemens
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container_issue 6
container_start_page 1231
container_title Welding in the world
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creator Thierry, Dominique
Vucko, Flavien
Luckeneder, Gerald
Weber, Bastien
Dosdat, Laurence
Bschorr, Thomas
Rother, Klemens
description A bstract The main aim of the project was to evaluate the influence of combined effects of fatigue loading and exposure to cyclic corrosion testing on the corrosion and the fatigue resistances of coated steel-based materials joined by resistance spot welding. Seven steel-based materials including cold rolled mild steels, high-strength steels, and press-hardened steels (PHS) were selected and provided by steel suppliers with different surface coatings for resistance spot welding. Panels were joined using conventional resistance spot welding in both lap-shear and T-peel designs. Joined samples were painted by e-coating following the industrial process. Metallographic characterization of the steel materials revealed that microstructures and metallic coating composition and thickness were as expected. Cross section of spot welds showed good quality and typical evolutions of hardness. Tensile tests and fatigue tests were performed on reference samples (fatigue in “air,” i.e., nonexposed to corrosion) leading to typical SN-lines as described in part I of this paper. The results were used to evaluate the influence of corrosion on tensile strength of the joined samples. Fatigue tests performed on combined and alternating corrosion and fatigue revealed that fatigue life is affected by extent of corrosion near the spot weld, with a reduction of the fatigue life at higher applied load and slight increase for lower load, compared to tests “in air.” This phenomenon was not observed for lap-shear configuration in alternated fatigue-corrosion mode.
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subjects Boron steels
Cold welding
Corrosion
Corrosion effects
Corrosion fatigue
Corrosion resistance
Corrosion resistant steels
Corrosion tests
Fatigue life
Fatigue tests
High strength steels
Load resistance
Low carbon steels
Low temperature resistance
Metal fatigue
Resistance spot welding
Spot welds
Steel
Tensile strength
Tensile tests
Thickness
Welded joints
title Fatigue behavior of spot-welded joints in air and under corrosive environments
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