Investigation of the high-temperature oxidation behavior of Fe-14Cr-9Mn-2.5Ni austenitic stainless steel in N2-21 vol%O2 environment
Source abstract
Abstract
The high-temperature oxidation behavior of Fe-14Cr-9Mn-2.5Ni austenitic stainless steel in N 2-21 vol％O 2 environment at 900–1100 °C has been investigated. As the oxidation temperature rises, the scale expands from a thin bilayer to a thicker multilayer composed of an outer Fe-rich layer and an internal oxidation zone. The inner oxide consists of island Cr-rich spinel precipitates surrounded by remaining Ni-rich metallic. At 1000 °C, we observed an embedded Cr-rich dense layer that can slow down the oxidation rate. At a higher temperature (1100 °C), the outer oxide scale (Fe, Mn) 2O 3/(Fe, Mn) 3O 4/(Fe, Mn)O forms, and the oxidation rate significantly increases.
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Research context
OpenAlex topics: High-Temperature Coating Behaviors · High Temperature Alloys and Creep · High Entropy Alloys Studies
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