G. E. Agar, F. Khan
Laboratory batch flotation tests were performed on a sample of bulk slow cooled converter matte (Cu:Ni = I) to optimize the time in each of the separation stages. Numerical simulations were carried out to estimate a continuous circuit material balance for the conditions selected. An experimental simulation of a continuous circuit (locked cycle test) readily came to steady state and there was reasonable agreement between the numerical and experimental results. The use of nitrogen as the flotation gas and the addition of collector to the grinding mill minimized the oxidation of chalcocite, which has previously resulted in increasing circulating loads, and led to a stable circuit with very low weights in the recycle streams.
@article{514f5c66-c3d1-43ea-82de-7ec6b784f5e4,
title={Laboratory Flotation Separation of Inco 'Bulk' Matte},
author={G. E. Agar and F. Khan},
year={1993},
language={en}
}TY - JOUR TI - Laboratory Flotation Separation of Inco 'Bulk' Matte AU - G. E. Agar AU - F. Khan PY - 1993 LA - en ER -
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