journal article·2022-02Open access

Initial atmospheric corrosion studies of copper from macroscale to nanoscale in a simulated indoor atmospheric environment

Weijie Zhao, R. Prasath Babu, Tingru Chang, Inger Odnevall, Peter Hedström, C. Magnus Johnson, Christofer Leygraf

Corrosion Science· Volume 195

Abstract

Corrosion effects on copper exposed in a humid atmosphere with formic acid (mimicking indoor corrosion) have been explored through successive increase in surface lateral resolution from macroscale (IRRAS, GIXRD) over microscale (LOM, SEM, IR microscopy) to nanoscale (Nano-FTIR, FIB/SEM/EDS). Initial more uniform growth of Cu2O is followed by more varying topography and thickness until local removal of Cu2O enables the aqueous adlayer to react with the copper substrate. Local formation of Cu(OH)(HCOO) and adjacent Cu2O provide microscopic and spectroscopic evidence of corrosion cells. Nano-FTIR shows that the density of Cu(OH)(HCOO) nuclei, but not their size, increases with exposure time.
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Research context

OpenAlex topics: Corrosion Behavior and Inhibition · Copper-based nanomaterials and applications · ZnO doping and properties

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