Design of the Directly Air-cooled Pearlite-free Multiphase Steel from CCT Diagrams Developed Using ANN and Dilatometric Methods
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概要
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Present study aims to predict the effect of Ti, B, Cu and Ni on continuous cooling transformation diagrams of low carbon (0.04–0.05 wt%) steels by artificial neural network model. The predicted results are validated with dilatometric studies. Comparison of the phase fields in different continuous cooling transformation diagrams demonstrated that in Ni containing 1.5 wt% Cu-added Ti–B microalloyed steel it is possible to achieve dual phase (ferrite–martensite) microstructure in directly air-cooled condition (i.e., at cooling rate close to 1°C/s) by suppressing pearlite formation. Addition of Cu has remarkably improved the hardness of the dilatometric samples.
著者
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Ghosh Swarup
Department of Metallurgy and Materials Engineering, Bengal Engineering and Science University
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Chattopadhyay Partha
Department of Metallurgy and Materials Engineering, Bengal Engineering and Science University
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Haldar Arunansu
R & D Division, Tata Steel Limited
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Ganguly Subhas
School of Materials Science and Engineering, Bengal Engineering and Science University
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Datta Subhobrata
School of Materials Science and Engineering, Bengal Engineering and Science University
関連論文
- Design of the Directly Air-cooled Pearlite-free Multiphase Steel from CCT Diagrams Developed Using ANN and Dilatometric Methods
- Design of the Directly Air-cooled Pearlite-free Multiphase Steel from CCT Diagrams Developed Using ANN and Dilatometric Methods
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