Engineering topics
Enos, David
Publications and source records attributed to Enos, David.
Stress Corrosion Cracking of SNF Interim Storage Canisters: Canister Surface Environment.
Abstract not provided.
Chemical and Physical Environment on the Surface of SNF Interim Storage Canisters.
Abstract not provided.
Estimating Bounding Corrosion Pit Sizes on Stainless Steel SNF Interim Storage Canisters.
Abstract not provided.
In situ study of surface-mediated explosive degradation using Heterodyne IR-Vis Sum Frequency Generation (HSFG).
Abstract not provided.
Materials assurance through orthogonal materials measurements.
Abstract not provided.
Fuel Integrity during Long Term Interim Storage: Evaluating SCC of SNF Storage Canisters.
Abstract not provided.
Materials Assurance Through Orthogonal Materials Measurements.
Abstract not provided.
Understanding the Risk of Chloride Induced Stress Corrosion Cracking of Interim Storage Containers for the Dry Storage of Spent Nuclear Fuel: Evolution of Brine Chemistry on the Container Surface.
Although the susceptibility of austenitic stainless steels to chloride-induced stress corrosion cracking is well known, uncertainties exist in terms of the environmental conditions that exist on the surface of the storage containers. While a diversity of salts is present in atmospheric aerosols, many of these are not stable when placed onto a heated surface. Given that the surface temperature of any container storing spent nuclear fuel will be well above ambient, it is likely that salts deposited on its surface may decompose or degas. To characterize this effect, relevant single and multi-salt mixtures are being evaluated as a function of temperature and relative humidity to establish the rates of degassing, as well as the likely final salt and brine chemistries that will remain on the canister surface.
Probabilistic Performance Assessment: SCC of SNF Interim Storage Canisters.
Abstract not provided.
In situ study of surface-mediated explosive degradation using Heterodyne IR-Vis Sum Frequency Generation.
Abstract not provided.