Synergistic effect of grain size and second-phase particle on the oxidation behaviour of a high-manganese austenitic heat-resistant steel

Liu, Tianlong; Cui, Yanxiong; Zheng, Kan; Yin, Fuxing; Luo, Zhi‐Chao

doi:10.1016/j.corsci.2023.111054

Cited by 11 publications

(1 citation statement)

References 37 publications

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“…They found that the matrix maintained the austenitic structure when adding 3.2wt.% to 12.8wt.% Mn to the steel, and the overall mechanical properties of the steel were optimal at a Mn content of 8wt.%. Liu et al [18][19] investigated the oxidation behavior of a high-manganese austenitic heat resistant steel, and they pointed out that the introduction of second phase particles helped to improve the oxidation resistance and oxide spalling resistance. Lee et al [20] studied the effect of Nb and Cu addition on the creep properties of a high Mn-N austenitic heat resistant steel and discussed the thermodynamics and kinetics of the precipitation by using thermo-kinetic simulations.…”

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confidence: 99%

Effect of Mn addition on microstructure and mechanical properties of GX40CrNiSi25-12 austenitic heat resistant steel

Jiang,

Wu,

Yang

et al. 2024

China Foundry

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Heat resistant steel is widely used in high-temperature working environments in industrial fields such as electric power, petroleum, chemical industry and automotive due to its advantages of excellent high-temperature performance, good oxidation resistance and stress corrosion resistance [1][2][3] . However, the rapid development of industry has put forward higher requirements for the performance of heat resistant steels. For example, the increasingly strict regulations on automobile emissions and the application of various new technologies in automobiles have led to a continuous increase in exhaust temperature, which requires that the materials of automobile exhaust end components can withstand

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confidence: 99%