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Service life of any weapon system depends upon factors that impart long-term durability and robustness to its structure and subsystems, while sustaining its functional properties. The paper describes basic principles and guidelines on corrosion control and rules that could be easily followed to ascertain some specified service life and reduce total ownership costs.
Service life of any weapon system depends upon factors that impart long-term durability and robustness to its structure and subsystems in the operating environment, while sustaining its functional properties. When the operating environment is corrosive and highly stressful to component materials used, corrosion effects become dominant and compromise the system integrity. Invariably operating environments dictate the chemical (more accurately electrochemical), physical and mechanical behavior of materials used in the weapon system, be it an aircraft, ship, land vehicle, tank, missile or submarine. In other words, the more corrosive the environment, the lower is the service life. The paper describes some basic principles and guidelines on corrosion control and rules that could be easily followed to ascertain some specified service life and reduce total ownership costs.
Keyword: operating environment, service life, material selection, engineering design, corrosion protection, monitoring sensors, NDE/I, dissimilar joints, education, acquisition policy
This presentation summarizes the development and expansion of a comprehensive information system for corrosion of metals and alloys in high temperature gases. New insights in analysis of thermochemical data for the Fe-Ni-Cr-Co-C-O-S-N system are being compiled. Corrosion mechanisms emphasized are oxidation, sulfidation, sulfidation/oxidation, and carburization.
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This paper describes corrosion rate prediction models for the main corrosion mechanisms of carbon steel in Exploration and Production service. The models succeed earlier work by De Waard, Milliams, and Lotz.
Update to “Expected Service Life and Cost Considerations for Maintenance and New Construction Protective Coating Work” - NACE Corrosion 2014.Designed to assist the coatings engineer or specifier in identifying candidate protective coating systems for specific industrial environments.