The Application of Multi-Component Floatability Models to Full Scale Flotation Circuits

The Australasian Institute of Mining and Metallurgy
K Runge J-P Franzidis E V. Manl
Organization:
The Australasian Institute of Mining and Metallurgy
Pages:
11
File Size:
282 KB
Publication Date:
Jan 1, 2000

Abstract

Over recent years a number of techniques have been developed as part of the Australian Minerals Industries Research Association (AMIRA) P9 project to represent mathematically or measure directly subprocesses occurring in flotation cells. These include the determination of a:machine parameter (bubble surface area flux, Sb); froth parameter (froth recovery, Rf); entrainment and drainage parameters; and ore floatability parameter (Pi). A cost-effective methodology was developed for using these techniques to derive models of flotation circuits. This methodology was applied to derive a model of the flotation circuit at the Western Mining Corporation (WMC) Ltd Mt Keith Nickel Concentrator. The model was used to simulate a number of minor circuit flowsheet changes, the results of which are discussed in this paper. One year later, a second study of this plant was conducted. In this second study, data were collected while operating the plant in the flowsheet configurations that were simulated from the model developed from the first study. The results obtained from the second study showed reasonable agreement with the trends predicted from the first study model; discrepancies can be explained in terms of the model assumptions. This suggests that this simple circuit modelling methodology can be useful in assisting plant engineers to optimise flotation circuits.
Citation

APA: K Runge J-P Franzidis E V. Manl  (2000)  The Application of Multi-Component Floatability Models to Full Scale Flotation Circuits

MLA: K Runge J-P Franzidis E V. Manl The Application of Multi-Component Floatability Models to Full Scale Flotation Circuits. The Australasian Institute of Mining and Metallurgy, 2000.

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