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This project has been concerned with the physical and numerical modeling of the conditions developed under disbonded coatings on steel, with a view to understanding the processes responsible for the conditions that lead to stress corrosion cracking.
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Copper based waterborne wood preservatives increase the corrosion of metals embedded or in contact with the treated wood. We examine wood that was in contact with corroding metal with synchrotron based X-ray fluorescence microscopy (XFM) and X-ray Absorption Near Edge Spectroscopy (XANES) to test if the proposed corrosion mechanism is correct.
Chemically Bonded Phosphate Ceramic coating was investigated in various environments such as inland, beach and salt-fog exposure. After 8-month outdoor testing, the coating was evaluated by visual inspection, coating thickness, adhesion measurement and X-ray diffraction. Long term testing ensued, up to 24 months.
The effect of the combined uncertainties on the performance of bolts in drilling and production systems using a Bayesian probabilistic approach. Also - managing the performance of bolts.
The electrochemical behavior of UNS(1) N08031 was investigated as a function of electrode potential in Green-Death(2) solution at 40 °C.
In the framework of studies on the control rods lifetime for Sodium Fast Reactor, three commercial steels were exposed to B4C powder in liquid sodium at 600°C for durations up to 3000 h.
New corrosion protective coatings were proposed and long term corrosion tests were performed. These coatings, based on modified polyaniline, showed that hexacyanoferrate improved their anticorrosion properties.
Electrochemical experiments with multi-phase alloy and alloy/ceramic composite materials representing waste forms being developed for metallic high-level radioactive waste streams generated during the pyroprocessing of spent nuclear fuel.
The authors have developed the monitoring method “CIPE” which determines corrosion rate using Tafel slope extrapolation method. To confirm accuracy, the results of CIPE are compared with mass losses of steel bars corroded in concrete.
Thermal Diffusion Galvanizing (TDG) coating was investigated with and without various recommended topcoats for both short and long-term exposure. The samples were exposed in outdoor test condition for up to 45 months.
Metallic material requirements for resistance to sulfide stress cracking (SSC) for petroleum production, drilling, gathering/flowline equipment and field processing facilities to be used in H2S-bearing hydrocarbon service. Historical Document 2001
Galvanized protective coatings have been used for structural steel to mitigate steel corrosion in atmospheric exposures and chloride-rich marine environments. The galvanizing process involves dipping steel elements free of surface mill scale in a molten zinc bath where the diffusion of zinc into the steel matrix allows for zinc-iron alloy layers of decreasing zinc concentrations by depth to form in the steel. Oher elements such as tin, antimony and aluminum may be added to the galvanizing bath to control reaction rates, surface appearance and corrosion behavior. Hot-dipped galvanizing provides corrosion protection by developing a barrier layer and in certain conditions provide beneficial galvanic coupling of the zinc-rich layers to the steel.