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Meeting 2022 TMS Annual Meeting & Exhibition
Symposium Aluminum Reduction Technology
Presentation Title Mass Transport by Waves: Physical Model with Coalescence, Fragmentation, and Displacement on a Bath-metal Interface
Author(s) Thomas Richer, Lukas Dion, Laszlo Kiss, Sebastien Gerard, Jean-François Bilodeau, Guillaume Bonneau, Lovatianna Rakotondramanana, Renaud Santerre
On-Site Speaker (Planned) Thomas Richer
Abstract Scope Behavior of alumina rafts at the bath-metal interface in an electrolysis cell have been simulated by a numerical model in previous studies. Further refinements on this model led to broader application and more « cell like» scenarios with its ability to consider three distinct bath metal interface phenomena. First, the transport wave who stem from disturbance in the electrolysis process such as bubbles, alumina deposits or crust-breakers actions is considered. Second, the stationary wave produced by the magnetohydrodynamics forces in the cell is replicated and third, the well-known permanent deformation of the bath-metal interface (BMI) is reproduced in the numerical model. In addition to the aggregate’s movements and positions, the proposed model simulates the fragmentation and coalescence occurring on these alumina rafts. The purpose of this paper is to present an in-depth sensitivity analysis of the improved numerical model and identify scenarios and parameters which could affect industrial cell conditions.
Proceedings Inclusion? Planned: Light Metals
Keywords Modeling and Simulation, Aluminum,

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

A Pragmatic Model for Alumina Feeding
A Water Model Study of Alumina Feeding and Dispersion
Advanced Alumina Dissolution Modelling
An Attempt to Estimate the Sulfuric Acid Dewpoint in the Flue Gas from Aluminium Electrolysis Cells
Bauxite & Alumina: Now and In the Future
Concentration Distribution of Carbon Particles in Aluminium Electrolysis Cells
Developing and Implementing an Efficient Forced Cooling Network at Aluminerie Alouette
Direct Production of Aluminum Manganese and Silicon Alloys in Aluminum Reduction Cells, A Laboratory Test
Direct Production of Aluminum Titanium Alloys in Aluminum Reduction Cells, A Laboratory Test
Empirical Prediction of Alumina Dissolution Rate in a Cryolitic Melt: Comparison with the Existing Literature
Imaging Alumina Distribution Using Low-voltage Anode Effect Detections in Anodic Current
Managing Power Interruptions at 360 KA Smelter
Mass Transport by Waves: Physical Model with Coalescence, Fragmentation, and Displacement on a Bath-metal Interface
Modeling of the Heat Exchange, the Phase Change, and Dissolution of Alumina Injected in Electrolysis Cells
Oxide Sensor Measurements and Simultaneous Optical Observations during Dissolution of Alumina in Cryolite Melt
Preparation of Aluminum Master Alloys by Electrolytic Co-deposition in Hall-Héroult Cells
Restart of Copper-insert Pots in EGA's High Amperage Potlines
Stabilizing a Low-dimensional Model of Magnetohydrodynamic Instabilities in Aluminum Electrolysis Cells
Statistical Model for Forecasting the Cell Replacement Rate in an Aluminum Smelter
Strategic Training and Development of Smelter Teams to Improve Business Outcomes
The Survivability of Aluminum Potlines after Lengthy Electrical Power Outages
Trace Elements in Aluminium Smelting Carbon Dust and Their Extraction

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