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Numerical Simulation of the Influence of Electric Field on Anode Gas Holdup in Rare Earth Electrolytic Cell AITranslate

Inner Mongolia University of Science and Technology Inner Mongolia Autonomous Region Baiyun Ebo Mine Multi -Metal Resources Comprehensive Utilization Key Laboratory;Inner Mongolia University of Science and Technology Inner Mongolia Autonomous Region Baiyun Ebo Mine Multi -Metal Resources Comprehensive Utilization Key Laboratory;Inner Mongolia University of Science and Technology Inner Mongolia Autonomous Region Baiyun Ebo Mine Multi -Metal Resources Comprehensive Utilization Key Laboratory;Inner Mongolia University of Science and Technology Inner Mongolia Autonomous Region Baiyun Ebo Mine Multi -Metal Resources Comprehensive Utilization Key Laboratory;Inner Mongolia University of Science and Technology Inner Mongolia Autonomous Region Baiyun Ebo Mine Multi -Metal Resources Comprehensive Utilization Key Laboratory;Inner Mongolia University of Science and Technology Inner Mongolia Autonomous Region Baiyun Ebo Mine Multi -Metal Resources Comprehensive Utilization Key Laboratory
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Publisher: Editorial Office of Rare Metals and Cemented Carbides
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Abstract AITranslate

In order to study the influence of electric field on anode gas holdup in rare earth electrolytic cell,the FLUENT software secondary development function was used to build the electric model of rare earth electrolytic cell.And then numerical simulation was carried out of the correlation between the electric field and the gas holdup in the electrolytic cell.The distribution of the anode gas holdup with or without the electric field was compared.It is found that the gas holdup of no electric field loaded model is lower than that of electric field loaded model at the same anode height.The difference of anode gas holdup caused by electric field loading is the largest when the anode height is 0.250 m,and then the difference decreases with the increase of anode height.The results are more coincident with the actual operation situation of electrolytic cell,providing a theoretical basis for the further development of large rare earth electrolytic cell.

KeyWords AITranslate

rare earth electrolytic cell electric field model anode gas gas holdup numerical simulation

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Basic Information:

DOI:

Chinese Library Classification Number:TF845[冶金工程—有色金属冶金]

Citation Information:

In order to study the influence of electric field on anode gas holdup in rare earth electrolytic cell,the FLUENT software secondary development function was used to build the electric model of rare earth electrolytic cell.And then numerical simulation was carried out of the correlation between the electric field and the gas holdup in the electrolytic cell.The distribution of the anode gas holdup with or without the electric field was compared.It is found that the gas holdup of no electric field loaded model is lower than that of electric field loaded model at the same anode height.The difference of anode gas holdup caused by electric field loading is the largest when the anode height is 0.250 m,and then the difference decreases with the increase of anode height.The results are more coincident with the actual operation situation of electrolytic cell,providing a theoretical basis for the further development of large rare earth electrolytic cell.

quote

GB/T 7714-2015 [1] DONG Yun-fang, FENG Meng, LIU Zhong-xing, et al. Numerical Simulation of the Influence of Electric Field on Anode Gas Holdup in Rare Earth Electrolytic Cell[J]. Rare Metals and Cemented Carbides, 2018(1): 10-13.
MLA [1] DONG Yun-fang, et al., "Numerical Simulation of the Influence of Electric Field on Anode Gas Holdup in Rare Earth Electrolytic Cell." Rare Metals and Cemented Carbides, no. 1, 2018, pp. 10-13.
APA [1] DONG Yun-fang, FENG Meng, LIU Zhong-xing, WU Yong-fu, JU Yang, & WU Dian-bin. (2018). Numerical Simulation of the Influence of Electric Field on Anode Gas Holdup in Rare Earth Electrolytic Cell. Rare Metals and Cemented Carbides(1), 10-13.
IEEE [1] DONG Yun-fang, FENG Meng, LIU Zhong-xing, WU Yong-fu, JU Yang, and WU Dian-bin, "Numerical Simulation of the Influence of Electric Field on Anode Gas Holdup in Rare Earth Electrolytic Cell," Rare Metals and Cemented Carbides, no. 1, pp. 10-13, 2018. keywords: {rare earth electrolytic cell;electric field model;anode gas;gas holdup;numerical simulation}