Comprehensive Model of Oxygen Steelmaking : Part 1 : Model Development and Validation
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概要
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A comprehensive model of oxygen steelmaking that includes the kinetics of scrap melting, flux dissolution, slag chemistry, temperature profile of the system, formation and residence of metal droplets in the emulsion, and kinetics of decarburization reaction in different reaction zones was developed. This paper discussed the development and the application of the model into an industrial practice. The results from the model were consistent with the plant data from the study of Cicutti et al. The model suggested that 45% of the total carbon was removed via emulsified metal droplets and the remaining was removed from the impact zone during the entire blow. It was found that the residence time of droplets as well as decarburization reaction rate via emulsified droplets was a strong function of bloating behavior of the droplets. This model is the first attempt in the open literature that allows for the decarburization kinetics of the impact zone to be predicted separately from decarburization kinetics of the emulsion.
- 2011-07-15
著者
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Rhamdhani Muhammad
Faculty Of Engineering And Industrial Science Swinburne University Of Technology
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BROOKS Geoffrey
Faculty of Engineering and Industrial Science, Swinburne University of Technology
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Brooks Geoffrey
Faculty Of Engineering And Industrial Science Swinburne University Of Technology
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Dogan Neslihan
Faculty Of Engineering And Industrial Science Swinburne University Of Technology
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RHAMDHANI Muhammad
Faculty of Engineering and Industrial Science, Swinburne University of Technology
関連論文
- Analysis of Droplet Generation in Oxygen Steelmaking
- Kinetics of Flux Dissolution in Oxygen Steelmaking
- Comprehensive Model of Oxygen Steelmaking : Part 3 : Decarburization in Impact Zone
- Comprehensive Model of Oxygen Steelmaking : Part 2 : Application of Bloated Droplet Theory for Decarburization in Emulsion Zone
- Comprehensive Model of Oxygen Steelmaking : Part 1 : Model Development and Validation
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