journal article·2013-03

Effect of chemical milling on low-cycle fatigue behavior of an Al–Mg–Si alloy

Ashley D. Spear, Anthony R. Ingraffea

Corrosion Science· Volume 68
Publisher page

Abstract

The effect of alkaline chemical milling used for dimensionally reducing aluminum-alloy structures is assessed in terms of total fatigue life and crack-initiation mechanisms. Chemically milled Al–Mg–Si specimens exhibited a 50% reduction in average fatigue lives compared to electropolished Al–Mg–Si specimens at comparable peak-applied loads above macroscopic yield. The fatigue-life reduction of the chemically milled specimens is likely associated with early onset of crack initiation due to pit-induced-stress concentrations. Fractographic analyses suggest a transition in the crack-initiation mechanisms from predominantly {1 1 1}-slip plane cracking to partly or predominantly pit-inducedstress driven depending on the depth of surface pits.
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Research context

OpenAlex topics: Aluminum Alloy Microstructure Properties · Fatigue and fracture mechanics · Non-Destructive Testing Techniques

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