Modeling of Solubility Product of TiN in Ti‐Microalloyed Steels

Most carbonitride solubility products of Ti do not consider the influence of commonly contained alloying elements such as Mn and Si in predicting the dissolution law of carbonitrides in steels, which would cause a deviation between the experimental data and predicted values. To solve this problem, the solubility product models of TiN and TiC in austenite considering the influence of Mn, Mo, Cr, Si, and Al are established in the present study based on the two‐sublattice model and relevant thermodynamic data. Different austenitizing temperatures are designed to analyze the precipitation law of the precipitates of a C–Si–Mn–Al–Mo–Ti–N steel. The experimental results show that the complete solution temperature of TiC is consistent with the calculation results of the TiC solubility product model. Due to the similar method establishing the TiC solubility product model, it is reasonably inferred that the predicting accuracy by the TiN solubility product model can be ensured. Additionally, as the austenitizing temperature increases, TiC particles completely dissolve between 1050 and 1100 °C, and then TiN particles begin to ripen when the temperature exceeds 1200 °C.

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Publication Details

Journal
steel research international
Published
2025-03-06
DOI
https://doi.org/10.1002/srin.202401075
Citations
2
Primary Topic
Metal and Thin Film Mechanics
Type
article
Field-Weighted Citation Impact
1.73

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article

Modeling of Solubility Product of TiN in Ti‐Microalloyed Steels

Jun Wang, Haijiang Hu, Man Liu, Guang Xu
2 citations
steel research international
Metal and Thin Film Mechanics
1.73
article

Modeling of Solubility Product of TiN in Ti‐Microalloyed Steels

Jun Wang, Haijiang Hu, Man Liu, Guang Xu
article en
2 citations

Abstract

Most carbonitride solubility products of Ti do not consider the influence of commonly contained alloying elements such as Mn and Si in predicting the dissolution law of carbonitrides in steels, which would cause a deviation between the experimental data and predicted values. To solve this problem, the solubility product models of TiN and TiC in austenite considering the influence of Mn, Mo, Cr, Si, and Al are established in the present study based on the two‐sublattice model and relevant thermodynamic data. Different austenitizing temperatures are designed to analyze the precipitation law of the precipitates of a C–Si–Mn–Al–Mo–Ti–N steel. The experimental results show that the complete solution temperature of TiC is consistent with the calculation results of the TiC solubility product model. Due to the similar method establishing the TiC solubility product model, it is reasonably inferred that the predicting accuracy by the TiN solubility product model can be ensured. Additionally, as the austenitizing temperature increases, TiC particles completely dissolve between 1050 and 1100 °C, and then TiN particles begin to ripen when the temperature exceeds 1200 °C.

steel research internationalVol. 96(10)
Wuhan University of Science and Technology (CN)
National Natural Science Foundation of China, China Postdoctoral Science Foundation, Natural Science Foundation of Hubei Province
Openalex Percentile: Top 19%
Metal and Thin Film Mechanics
1.73
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