Szu-Ning Lin
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Previous Organizations / Institutes
The organizations / institutes from the scholar's other articles in the past ten years
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Szu-Ning Lin has a total of 8 co-authors. Here are the top co-authors by number of shared publications:
- Chao-Chi Huang
Iron & Steel Research & Development Department, China Steel Corporation, No.1, Zhonggang Rd., Xiaogang Dist., Kaohsiung City 81233, Taiwan
1 shared publication Chao‐Chi Huang
Iron & Steel Research & Development Department, China Steel Corporation No.1, Zhonggang Rd., Xiaogang Dist. Kaohsiung City 81233 Taiwan, R.O.C
1 shared publication- Ker-Chang Hsieh
Department of Materials and Optoelectronic Science, National Sun Yat-Sen University, Kaohsiung 804, Taiwan
1 shared publication Ker‐Chang Hsieh
Department of Materials and Optoelectronic National Sun Yat‐Sen University Taiwan, R.O.C.
1 shared publication- Min-Tao Wu
Iron & Steel Research & Development Department, China Steel Corporation, No.1, Zhonggang Rd., Xiaogang Dist., Kaohsiung City 81233, Taiwan
1 shared publication Min‐Tao Wu
Iron & Steel Research & Development Department, China Steel Corporation No.1, Zhonggang Rd., Xiaogang Dist. Kaohsiung City 81233 Taiwan, R.O.C
1 shared publication
Latest Publications
- 2 May 2017
- Published by Wiley in Steel Research International
- Vol. 88 (11)
Crucial Mechanism to the Eutectoid Transformation of Wüstite Scale on Low Carbon Steel
It is important to realize the transformation behavior of wüstite, because it greatly affects the final structure of the oxide layer and the surface quality of steel products. In the present study, the transformation behaviors of the wüstite layer are examined under nearly‐oxygen‐free conditions in order to simulate the cooling processes after the hot rolled strip is coiled. As the single phase wüstite is prepared at 950 °C, the 460 °C transformed oxide layer is composed of a mixture of iron and magnetite formed through eutectoid reactions. For the 750 °C‐fabricated wüstite, only magnetite is observed after transformation, without iron precipitates, and residual wüstite. It is speculated that the unusual transformation behavior of the low‐temperature‐made wüstite results from the pseudo‐structural intermediate phase transformation between wüstite and magnetite. This pseudo‐structure is a pre‐transformed wüstite and contains various concentrations of ferrous ion, which is determined by the fabrication conditions. During the hot strip mill process, wüstite is produced continuously from finish mill to laminar flow sections and culminated at 570 °C. Consequently, the final eutectoid transformation below 570 °C is dominantly controlled by the surface temperature ranging from 750 to 950 °C for low carbon steel.
- 2 May 2017
- Published by Wiley in Steel Research International
- Vol. 88 (11)
Crucial Mechanism to the Eutectoid Transformation of Wüstite Scale on Low Carbon Steel
It is important to realize the transformation behavior of wüstite, because it greatly affects the final structure of the oxide layer and the surface quality of steel products. In the present study, the transformation behaviors of the wüstite layer are examined under nearly‐oxygen‐free conditions in order to simulate the cooling processes after the hot rolled strip is coiled. As the single phase wüstite is prepared at 950 °C, the 460 °C transformed oxide layer is composed of a mixture of iron and magnetite formed through eutectoid reactions. For the 750 °C‐fabricated wüstite, only magnetite is observed after transformation, without iron precipitates, and residual wüstite. It is speculated that the unusual transformation behavior of the low‐temperature‐made wüstite results from the pseudo‐structural intermediate phase transformation between wüstite and magnetite. This pseudo‐structure is a pre‐transformed wüstite and contains various concentrations of ferrous ion, which is determined by the fabrication conditions. During the hot strip mill process, wüstite is produced continuously from finish mill to laminar flow sections and culminated at 570 °C. Consequently, the final eutectoid transformation below 570 °C is dominantly controlled by the surface temperature ranging from 750 to 950 °C for low carbon steel.
- Open Access
- 29 January 2017
- Published by MDPI AG in Preprints.org
Crucial Mechanism to the Eutectoid Transformation of Wüstite Scale on Low Carbon Steel
It is important to realize the transformation behavior of wüstite because it greatly affects the final structure of the oxide layer and the surface quality of the steel products. In the present study, the transformation behaviors of the wüstite layer are examined under nearly-oxygen-free conditions, to simulate the cooling processes after the hot rolled strip is coiled. As the single phase wüstite was prepared at 950˚C, the 460˚C transformed oxide layer was composed of a mixture of iron and magnetite formed through eutectoid reactions. For the 750˚C-fabricated wüstite, only magnetite was observed after transformation, without iron precipitates and residual wüstite. It is speculated that the unusual transformation behavior of the low-temperature-made wüstite results from the pseudo-structural intermediate phase transformation between wüstite and magnetite. This pseudo-structure is a pre-transformed wüstite and of various concentration of ferrous ion, which is determined by the fabrication conditions. During the hot strip mill process, the so-called wet scale, wüstite, is produced continuously from finish mill to laminar flow sections and ended at 570˚C. Consequently, the final eutectoid transformation below 570˚C is dominantly controlled by the surface temperature ranged from 750˚C to 950˚C for low carbon steel.
- 29 January 2017
- Published by MDPI AG in Preprints.org
Open AccessCrucial Mechanism to the Eutectoid Transformation of Wüstite Scale on Low Carbon Steel
It is important to realize the transformation behavior of wüstite because it greatly affects the final structure of the oxide layer and the surface quality of the steel products. In the present study, the transformation behaviors of the wüstite layer are examined under nearly-oxygen-free conditions, to simulate the cooling processes after the hot rolled strip is coiled. As the single phase wüstite was prepared at 950˚C, the 460˚C transformed oxide layer was composed of a mixture of iron and magnetite formed through eutectoid reactions. For the 750˚C-fabricated wüstite, only magnetite was observed after transformation, without iron precipitates and residual wüstite. It is speculated that the unusual transformation behavior of the low-temperature-made wüstite results from the pseudo-structural intermediate phase transformation between wüstite and magnetite. This pseudo-structure is a pre-transformed wüstite and of various concentration of ferrous ion, which is determined by the fabrication conditions. During the hot strip mill process, the so-called wet scale, wüstite, is produced continuously from finish mill to laminar flow sections and ended at 570˚C. Consequently, the final eutectoid transformation below 570˚C is dominantly controlled by the surface temperature ranged from 750˚C to 950˚C for low carbon steel.