Keywordsatmospheric corrosion; low alloy steel; rust; Cl−; SOx; nickel; chromium; transmission electron microscopy; Raman spectroscopy; atmospheric corrosion; historic copper; patina; bilayer; cuprite; brochantite; antlerite; inclusions; Volta potential; micro-galvanic effect; parallel finite element method; diffusion; coupled hygro-chemo; concrete degradation; atmospheric corrosivity; atmospheric test exposure; yearly mass loss; long-term corrosion rate; structural metals; atmospheric corrosion; marine environment; carbon steel; atmospheric corrosion; infrared spectroscopy; Raman spectroscopy; vibrational sum frequency spectroscopy; VSFS; SFG; carbon steel; zinc; modeling studies; atmospheric corrosion; atmospheric corrosion; carbon steel; damage function; ISOCORRAG; ICP/UNECE; MICAT; cultural heritage metals; iron; low alloy steel; atmospheric corrosion; in-situ measurement; micro-Raman; atmospheric corrosion; soiling; pollution; carbon steel; weathering steel; zinc; copper; aluminium; limestone; glass; zinc; corrosion; oxides; droplets
