1 - 1 |
Preface Brito-Parada P |
2 - 12 |
Modern practice of laboratory flotation testing for flowsheet development - A review Lotter NO, Whiteman E, Bradshaw DJ |
13 - 24 |
The effect of saline water on mineral flotation - A critical review Wang B, Peng YJ |
25 - 32 |
Cyanide chemistry and its effect on mineral flotation Guo B, Peng YJ, Espinosa-Gomez R |
33 - 39 |
Potash flotation practice for carnallite resources in the Qinghai Province, PRC Wang XM, Miller JD, Cheng FQ, Cheng HG |
40 - 46 |
Froth transport characterization in a two-dimensional flotation cell Rojas I, Vinnett L, Yianatos J, Iriarte V |
47 - 53 |
Influence of particles on the formation of bubbles from a submerged capillary Ata S, Ng KY, Law E, Lim M |
54 - 61 |
The implications of the froth recovery at the laboratory scale Amelunxen P, Sandoval G, Barriga D, Amelunxen R |
62 - 67 |
A new small-scale test to determine flotation performance - Part 1: Overall performance Vos CF, Stange W, Bradshaw DJ |
68 - 76 |
Modelling flotation with a flexible approach - Integrating different models to the compartment model dos Santos NA, Savassi O, Peres AEC, Martins AH |
77 - 83 |
Distributed flotation kinetics models - A new implementation approach for coal flotation Ofori P, O'Brien G, Hapugoda P, Firth B |
84 - 93 |
Measuring turbulence in a flotation cell using the piezoelectric sensor Meng J, Xie WG, Brennan M, Runge K, Bradshaw D |
94 - 101 |
Fluidized bed desliming in fine particle flotation - Part III flotation of difficult to clean coal Galvin KP, Harvey NG, Dickinson JE |
102 - 111 |
Selective flotation of chalcopyrite and molybdenite with plasma pre-treatment Hirajima T, Mori M, Ichikawa O, Sasaki K, Miki H, Farahat M, Sawada M |
112 - 118 |
Surface energy of minerals - Applications to flotation Mohammadi-Jam S, Burnett DJ, Waters KE |
119 - 129 |
Surface chemistry considerations in the flotation of bastnasite Jordens A, Marion C, Kuzmina O, Waters KE |
130 - 134 |
Investigating froth stability: A comparative study of ionic strength and frother dosage Corin KC, Wiese JG |
135 - 144 |
Synergetic effect of a mixture of anionic and nonionic reagents: Ca mineral contrast separation by flotation at neutral pH Filippova IV, Filippov LO, Duverger A, Severov VV |
145 - 151 |
Effect of saline water on the flotation of fine and coarse coal particles in the presence of clay minerals Wang B, Peng YJ, Vink S |
152 - 156 |
Effect of electrolytes on the flotation of copper minerals in the presence of clay minerals Zhao SL, Peng YJ |
157 - 164 |
The effect of particle breakage mechanisms during regrinding on the subsequent cleaner flotation Chen XM, Peng YJ, Bradshaw D |
165 - 172 |
Importance of oxidation during regrinding of rougher flotation concentrates with a high content of sulfides Chen XM, Seaman D, Peng YJ, Bradshaw D |
173 - 180 |
Synthesis of 2-ethyl-2-hexenal oxime and its flotation performance for copper ore Xu HF, Zhong H, Wang S, Niu YN, Liu GY |
181 - 190 |
Mapping hydrophobicity combining AFM and Raman spectroscopy Rudolph M, Peuker UA |
191 - 196 |
Bank profiling and separation efficiency Singh N, Finch JA |
197 - 201 |
Pyrite recovery mechanisms in rougher flotation circuits Yianatos J, Carrasco C, Vinnett L, Rojas I |
202 - 206 |
On the collection of valuable minerals along rougher flotation banks Yianatos J, Bergh L, Vinnett L, Rojas I |
207 - 214 |
Flotation separation of copper sulphides from arsenic minerals at Rosebery copper concentrator Long G, Peng YJ, Bradshaw D |
215 - 220 |
Implementation of regrind-flotation pre-treatment of the CIL feed in a copper-gold plant Burns F, Seaman D, Peng YJ, Bradshaw D |
221 - 229 |
Optimisation of air rate and froth depth in flotation using a CCRD factorial design - PGM case study Venkatesan L, Harris A, Greyling M |
230 - 233 |
The collision efficiency of small bubbles with large particles Basarova P, Hubicka M |