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Performing Corrosion Risks Assessments of Nuclear Waste Process Tanks Containing Variable Waste Chemistries

Picture for Performing Corrosion Risks Assessments of Nuclear Waste Process Tanks Containing Variable Waste Chemistries
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The Hanford Site stores over 50 million gallons (190 million liters) of legacy nuclear process waste that was generated from plutonium separations and waste management processes. This waste, in the form of supernatant liquids, saltcakes, and sludges is contained in large underground storage tanks, up to a million gallons (3.78 million liters) in capacity and lined with carbon steel. The waste was made highly alkaline to ensure passivation of the carbon steel, but it also contains nitrate, in high concentrations, along with fluoride and chloride that poses risks for stress corrosion cracking and pitting corrosion.

Product Number: 51323-18878-SG
Author: J.S. Page, S.T. Campbell, C.L. Girardot, J.R. Gunter
Publication Date: 2023
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Legacy nuclear process waste is stored in 1,000 kgal (3,780 kL) capacity, underground, carbon steel, double-shell tanks on the Hanford Site. Many of these tanks contain a considerable quantity of settled solids under a nitrate-rich supernatant liquid, and the solids can have a large chemical diversity due to the receipt of waste from multiple plutonium separation and waste management processes over several decades of use. Therefore, knowing the chemical content through the entirety of the waste is critical to assessing the risk of corrosion. This challenge is further increased by the radiological risks imposed by the hazards of handling the waste during chemical characterization and testing. A tank waste sampling strategy has been developed to profile the chemical diversity in the storage tanks, and the subsequent samples are used to support corrosion testing for corrosion risk assessments of the tank bottom, liquid-to-air interface, and chemically unique waste layers. Additional information is obtained from a tank potential monitoring program to ensure the tank steel is below critical pitting and cracking potentials. Together, the corrosion testing and tank potentials are used to minimize corrosion risks, ensuring the integrity of the double-shell storage tanks is maintained on the Hanford Site.

Legacy nuclear process waste is stored in 1,000 kgal (3,780 kL) capacity, underground, carbon steel, double-shell tanks on the Hanford Site. Many of these tanks contain a considerable quantity of settled solids under a nitrate-rich supernatant liquid, and the solids can have a large chemical diversity due to the receipt of waste from multiple plutonium separation and waste management processes over several decades of use. Therefore, knowing the chemical content through the entirety of the waste is critical to assessing the risk of corrosion. This challenge is further increased by the radiological risks imposed by the hazards of handling the waste during chemical characterization and testing. A tank waste sampling strategy has been developed to profile the chemical diversity in the storage tanks, and the subsequent samples are used to support corrosion testing for corrosion risk assessments of the tank bottom, liquid-to-air interface, and chemically unique waste layers. Additional information is obtained from a tank potential monitoring program to ensure the tank steel is below critical pitting and cracking potentials. Together, the corrosion testing and tank potentials are used to minimize corrosion risks, ensuring the integrity of the double-shell storage tanks is maintained on the Hanford Site.

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