CFD Study of Gas-Liquid Phase Interaction Inside a Submerged Lance Smelting Furnace for Copper Smelting

The Minerals, Metals and Materials Society
Guangwu Tang Armin K. Silaen Hongjie Yan Zhixiang Cui Zhi Wang Haibin Wang Kaile Tang Ping Zhou Chenn Q. Zhou
Organization:
The Minerals, Metals and Materials Society
Pages:
11
File Size:
1883 KB
Publication Date:
Mar 1, 2017

Abstract

Bath smelting technology, such as the submerged lance smelting furnace, is used in the modern copper making industry. The first submerged lance smelting furnace developed by Dongying Fangyuan Nonferrous Metals Co., Ltd has shown potential for high productivity and energy savings. In this study, computational fluid dynamics (CFD) was applied to investigate the current design of the furnace. A three-dimensional multiphase CFD model was developed to study the interaction between injected gas and the liquid bath. The multiphase Eulerian model was used for simulating gas/liquid two-phase flow. The flow pattern in the submerged lance smelting furnace indicated rapid flow development and strong turbulent interactions between the gas and liquid phases. The model was validated based on a water model experiment of the mixing process. Mixing times from the simulation results show good agreement with experimental data. Additionally, based on this model, the gas residence time and liquid copper matte splashing phenomena under varying gas flow rates were investigated.
Citation

APA: Guangwu Tang Armin K. Silaen Hongjie Yan Zhixiang Cui Zhi Wang Haibin Wang Kaile Tang Ping Zhou Chenn Q. Zhou  (2017)  CFD Study of Gas-Liquid Phase Interaction Inside a Submerged Lance Smelting Furnace for Copper Smelting

MLA: Guangwu Tang Armin K. Silaen Hongjie Yan Zhixiang Cui Zhi Wang Haibin Wang Kaile Tang Ping Zhou Chenn Q. Zhou CFD Study of Gas-Liquid Phase Interaction Inside a Submerged Lance Smelting Furnace for Copper Smelting. The Minerals, Metals and Materials Society, 2017.

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