Atmospheric Corrosion Modeling and Corrosivity Categorization of 1008 Carbon Steel in Alaska

A comprehensive understanding of atmospheric corrosion guides informed design choices and effective anticorrosion protection strategies. Despite advancements in the understanding of atmospheric corrosion, there exists a knowledge gap in the corrosiveness of metals in subarctic regions like Alaska where evaluation is made more difficult. Multiangle corrosion test racks were deployed at four test sites in Alaska each equipped with weather sensors and chloride candles to evaluate atmospheric and environmental severity. Recorded weather parameters include air temperature, relative humidity, time of wetness, total rainfall, and aerosol chloride and sulfate deposition. 1008 Carbon Steel was chosen for exposure and analysis. Postexposure coupon mass loss was measured, and corrosion rates were analyzed as a function of exposure angle. Based on experimental results, equations were developed to more accurately model and estimate the corrosive behavior and evaluate the atmospheric corrosivity in Alaska. This model quantifies experimental corrosion rates as a function of air temperature, relative humidity, sulfate deposition, chloride deposition, percent time wet, and exposure duration.

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Publication Details

Journal
CORROSION
Published
2026-02-02
DOI
https://doi.org/10.5006/4815
Primary Topic
Corrosion Behavior and Inhibition
Type
article
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article

Atmospheric Corrosion Modeling and Corrosivity Categorization of 1008 Carbon Steel in Alaska

Lawrence Giron, J. Hunter, Matthew Cullin, Raghu Srinivasan
CORROSION
Corrosion Behavior and Inhibition
article

Atmospheric Corrosion Modeling and Corrosivity Categorization of 1008 Carbon Steel in Alaska

Lawrence Giron, J. Hunter, Matthew Cullin, Raghu Srinivasan
article en

Abstract

A comprehensive understanding of atmospheric corrosion guides informed design choices and effective anticorrosion protection strategies. Despite advancements in the understanding of atmospheric corrosion, there exists a knowledge gap in the corrosiveness of metals in subarctic regions like Alaska where evaluation is made more difficult. Multiangle corrosion test racks were deployed at four test sites in Alaska each equipped with weather sensors and chloride candles to evaluate atmospheric and environmental severity. Recorded weather parameters include air temperature, relative humidity, time of wetness, total rainfall, and aerosol chloride and sulfate deposition. 1008 Carbon Steel was chosen for exposure and analysis. Postexposure coupon mass loss was measured, and corrosion rates were analyzed as a function of exposure angle. Based on experimental results, equations were developed to more accurately model and estimate the corrosive behavior and evaluate the atmospheric corrosivity in Alaska. This model quantifies experimental corrosion rates as a function of air temperature, relative humidity, sulfate deposition, chloride deposition, percent time wet, and exposure duration.

CORROSIONVol. 82(3)
University of Alaska Anchorage (US)
Openalex Percentile: Top 70%
Corrosion Behavior and Inhibition
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