Steel Composition

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Jeffrey D. Smith - One of the best experts on this subject based on the ideXlab platform.

  • kinetics of corrosion of bn zro2 sic ceramics in contact with si killed Steel
    Journal of the American Ceramic Society, 2015
    Co-Authors: Abhishek Kumar, Vivek Thapliyal, D G C Robertson, Jeffrey D. Smith
    Abstract:

    The mechanism and kinetics of corrosion of BN–ZrO2–SiC (MYCROSINT®SO43) by molten Si-killed Steel was studied. Isothermal corrosion tests were performed for duration between 2 and 8 h. Refractory and Steel Composition and morphology changes were investigated. A kinetic model using process simulation software METSIM and thermochemical software FactSage was developed to understand refractory–Steel interactions. The corrosion process showed a deviation from parabolic kinetics and was fitted by a combination of linear and parabolic terms. It was determined that corrosion of the BN–ZrO2–SiC refractory was governed by dissolution of SiC and BN and removal of ZrO2 as the other phases were eliminated.

  • Kinetics of Corrosion of BN–ZrO2–SiC Ceramics in Contact with Si-Killed Steel
    Journal of the American Ceramic Society, 2015
    Co-Authors: Abhishek Kumar, Vivek Thapliyal, David Robertson, Jeffrey D. Smith
    Abstract:

    The mechanism and kinetics of corrosion of BN–ZrO2–SiC (MYCROSINT®SO43) by molten Si-killed Steel was studied. Isothermal corrosion tests were performed for duration between 2 and 8 h. Refractory and Steel Composition and morphology changes were investigated. A kinetic model using process simulation software METSIM and thermochemical software FactSage was developed to understand refractory–Steel interactions. The corrosion process showed a deviation from parabolic kinetics and was fitted by a combination of linear and parabolic terms. It was determined that corrosion of the BN–ZrO2–SiC refractory was governed by dissolution of SiC and BN and removal of ZrO2 as the other phases were eliminated.

Abhishek Kumar - One of the best experts on this subject based on the ideXlab platform.

  • kinetics of corrosion of bn zro2 sic ceramics in contact with si killed Steel
    Journal of the American Ceramic Society, 2015
    Co-Authors: Abhishek Kumar, Vivek Thapliyal, D G C Robertson, Jeffrey D. Smith
    Abstract:

    The mechanism and kinetics of corrosion of BN–ZrO2–SiC (MYCROSINT®SO43) by molten Si-killed Steel was studied. Isothermal corrosion tests were performed for duration between 2 and 8 h. Refractory and Steel Composition and morphology changes were investigated. A kinetic model using process simulation software METSIM and thermochemical software FactSage was developed to understand refractory–Steel interactions. The corrosion process showed a deviation from parabolic kinetics and was fitted by a combination of linear and parabolic terms. It was determined that corrosion of the BN–ZrO2–SiC refractory was governed by dissolution of SiC and BN and removal of ZrO2 as the other phases were eliminated.

  • Kinetics of Corrosion of BN–ZrO2–SiC Ceramics in Contact with Si-Killed Steel
    Journal of the American Ceramic Society, 2015
    Co-Authors: Abhishek Kumar, Vivek Thapliyal, David Robertson, Jeffrey D. Smith
    Abstract:

    The mechanism and kinetics of corrosion of BN–ZrO2–SiC (MYCROSINT®SO43) by molten Si-killed Steel was studied. Isothermal corrosion tests were performed for duration between 2 and 8 h. Refractory and Steel Composition and morphology changes were investigated. A kinetic model using process simulation software METSIM and thermochemical software FactSage was developed to understand refractory–Steel interactions. The corrosion process showed a deviation from parabolic kinetics and was fitted by a combination of linear and parabolic terms. It was determined that corrosion of the BN–ZrO2–SiC refractory was governed by dissolution of SiC and BN and removal of ZrO2 as the other phases were eliminated.

Vivek Thapliyal - One of the best experts on this subject based on the ideXlab platform.

  • kinetics of corrosion of bn zro2 sic ceramics in contact with si killed Steel
    Journal of the American Ceramic Society, 2015
    Co-Authors: Abhishek Kumar, Vivek Thapliyal, D G C Robertson, Jeffrey D. Smith
    Abstract:

    The mechanism and kinetics of corrosion of BN–ZrO2–SiC (MYCROSINT®SO43) by molten Si-killed Steel was studied. Isothermal corrosion tests were performed for duration between 2 and 8 h. Refractory and Steel Composition and morphology changes were investigated. A kinetic model using process simulation software METSIM and thermochemical software FactSage was developed to understand refractory–Steel interactions. The corrosion process showed a deviation from parabolic kinetics and was fitted by a combination of linear and parabolic terms. It was determined that corrosion of the BN–ZrO2–SiC refractory was governed by dissolution of SiC and BN and removal of ZrO2 as the other phases were eliminated.

  • Kinetics of Corrosion of BN–ZrO2–SiC Ceramics in Contact with Si-Killed Steel
    Journal of the American Ceramic Society, 2015
    Co-Authors: Abhishek Kumar, Vivek Thapliyal, David Robertson, Jeffrey D. Smith
    Abstract:

    The mechanism and kinetics of corrosion of BN–ZrO2–SiC (MYCROSINT®SO43) by molten Si-killed Steel was studied. Isothermal corrosion tests were performed for duration between 2 and 8 h. Refractory and Steel Composition and morphology changes were investigated. A kinetic model using process simulation software METSIM and thermochemical software FactSage was developed to understand refractory–Steel interactions. The corrosion process showed a deviation from parabolic kinetics and was fitted by a combination of linear and parabolic terms. It was determined that corrosion of the BN–ZrO2–SiC refractory was governed by dissolution of SiC and BN and removal of ZrO2 as the other phases were eliminated.

H W Zandbergen - One of the best experts on this subject based on the ideXlab platform.

D G C Robertson - One of the best experts on this subject based on the ideXlab platform.

  • kinetics of corrosion of bn zro2 sic ceramics in contact with si killed Steel
    Journal of the American Ceramic Society, 2015
    Co-Authors: Abhishek Kumar, Vivek Thapliyal, D G C Robertson, Jeffrey D. Smith
    Abstract:

    The mechanism and kinetics of corrosion of BN–ZrO2–SiC (MYCROSINT®SO43) by molten Si-killed Steel was studied. Isothermal corrosion tests were performed for duration between 2 and 8 h. Refractory and Steel Composition and morphology changes were investigated. A kinetic model using process simulation software METSIM and thermochemical software FactSage was developed to understand refractory–Steel interactions. The corrosion process showed a deviation from parabolic kinetics and was fitted by a combination of linear and parabolic terms. It was determined that corrosion of the BN–ZrO2–SiC refractory was governed by dissolution of SiC and BN and removal of ZrO2 as the other phases were eliminated.