Pyrometallurgical Recovery of Valuable Metals …
547
3. Morales A, Cruells M, Roca A, Bergó R (2010) Treatment of copper flash smelter flue dusts
for copper and zinc extraction and arsenic stabilization. Hydrometallurgy 105:148–154
4. Tomitia M, Higashi M, Oto S, Okamoto H (1992) Hydrometallurgical process of copper converter dust at the Saganoseki smelter and refinery, residues and effluents. In: Reddy RG, Imrie
WP, Queneau PB, Warrendale PA (eds) Processing and environmental considerations. The
Metallurgical Society, pp 283–293
5. Hagni RD, Karakus M (1991) Mineral variation in flash furnace particles produced under
varying furnace conditions, in EPD Congress 91:811–819
6. Kunter RS, Bedal WE (1992) The Cashman process treatment of smelter flue dusts and residues,
residues and effluents. In: Reddy RG, Imrie WP, Queneau PB, Warrendale PA (eds) Processing
and environmental considerations. The Metallurgical Society, pp 269–282
7. Yin ZB, Caba E, Barron L, Belin D, Morris W, Vosika M, Bartlett R (1992) Copper extraction from smelter flue dust by lime-roast/ammoniacal heap leaching, residues and effluents.
In: Reddy RG, Imrie WP, Queneau PB, Warrendale PA (eds) Processing and environmental
considerations. The Metallurgical Society, pp 255–267
8. Swinbourne DR, Simak E, Yazawa A (2002) Accretion and dust formation in copper smelting—
thermodynamic considerations. In: Stephens RL, Sohn HY (eds) Sulfide smelting. TMS, pp
247–259
9. Hancock PJ, Peacey JG (1994) Review of pyrometallurgical processes for treating non-ferrous
complex materials and wastes. In: Nilmani M, Lehner T, Rankin WJ (eds) Pyrometallurgy for
complex materials & wastes. TMS, pp 27–48
10. Moldabayeva GZ, Akilbekova SK, Mamyrbayeva KK, Mishra B (2015) Electrosmelting of
lead-containing dusts from copper smelters. J Sustain Metall 1:286–296
11. Lucheva B, Iliev P, Kolev D (2017) Hydro-pyrometallurgical treatment of copper converter
flue dust. J Chem Technol Metall 52:320–325
12. Xu Y, Li Y, Ding K, Kong Q (2005) A new process for comprehensive utilization of high-As
dust from Isa furnace. China Nonferrous Metall 5:16–18
13. Cui Z, Wang Z, Zhao B (2014) Features of the bottom blown oxygen copper smelting technology. In: Bassa R, Parra R, Luraschi A, Demetrio S (eds) Proceedings of Nickolas Themelis Symposium on pyrometallurgy and process engineering. The Chilean Institute of Mining Engineers,
Santiago, Chile, pp 351–360, ISBN: 978-956-7180-10-3
14. Zhao B, Cui Z, Wang Z (2013) A new copper smelting technology—bottom blown oxygen
furnace developed at Dongying Fangyuan nonferrous metals. In: Jiang T, Hwang J-Y, Mackey
PJ, Yucel O, Zhou G (eds) Proceedings of 4th international symposium on high-temperature
metallurgical processing. Wiley, pp 3–10, ISBN: 978-1-118-60569-1
15. Wang Z, Wang H, Guo X, Cui Z, Zhao B (2018) Simplified process for making anode copper.
In: Hwang J-Y, Jiang T, Kennedy MW, Gregurek D, Wang S, Zhao B, Yucel O, Keskinkilic
E, Downey JP, Peng Z, Padilla R (eds) 9th international symposium on high-temperature
metallurgical processing. Springer International Publishing, pp 3–12, ISBN: 978-3-319-721378
16. Schriner D, Taylor P, Grogan J (2016) A review of slag chemistry in lead recycling. In: Reddy
RG, Chaubal P, Chris Pistorius P, Pal U (eds) Advances in molten slags, fluxes, and salts:
proceedings of the 10 th international conference on molten slags, fluxes and salts (MOLTEN16).
TMS (The Minerals, Metals & Materials Society), pp 879–888
17. Bale CW, Bélisle E, Chartrand P, Decterov SA, Eriksson G, Gheribi AE, Hack K, Jung IH,
Kang YB, Melançon J, Pelton AD, Petersen S, Robelin C, Sangster J, Spencer P, Van Ende
MA (2016) FactSage thermochemical software and databases. CALPHAD 54:35–53
547
3. Morales A, Cruells M, Roca A, Bergó R (2010) Treatment of copper flash smelter flue dusts
for copper and zinc extraction and arsenic stabilization. Hydrometallurgy 105:148–154
4. Tomitia M, Higashi M, Oto S, Okamoto H (1992) Hydrometallurgical process of copper converter dust at the Saganoseki smelter and refinery, residues and effluents. In: Reddy RG, Imrie
WP, Queneau PB, Warrendale PA (eds) Processing and environmental considerations. The
Metallurgical Society, pp 283–293
5. Hagni RD, Karakus M (1991) Mineral variation in flash furnace particles produced under
varying furnace conditions, in EPD Congress 91:811–819
6. Kunter RS, Bedal WE (1992) The Cashman process treatment of smelter flue dusts and residues,
residues and effluents. In: Reddy RG, Imrie WP, Queneau PB, Warrendale PA (eds) Processing
and environmental considerations. The Metallurgical Society, pp 269–282
7. Yin ZB, Caba E, Barron L, Belin D, Morris W, Vosika M, Bartlett R (1992) Copper extraction from smelter flue dust by lime-roast/ammoniacal heap leaching, residues and effluents.
In: Reddy RG, Imrie WP, Queneau PB, Warrendale PA (eds) Processing and environmental
considerations. The Metallurgical Society, pp 255–267
8. Swinbourne DR, Simak E, Yazawa A (2002) Accretion and dust formation in copper smelting—
thermodynamic considerations. In: Stephens RL, Sohn HY (eds) Sulfide smelting. TMS, pp
247–259
9. Hancock PJ, Peacey JG (1994) Review of pyrometallurgical processes for treating non-ferrous
complex materials and wastes. In: Nilmani M, Lehner T, Rankin WJ (eds) Pyrometallurgy for
complex materials & wastes. TMS, pp 27–48
10. Moldabayeva GZ, Akilbekova SK, Mamyrbayeva KK, Mishra B (2015) Electrosmelting of
lead-containing dusts from copper smelters. J Sustain Metall 1:286–296
11. Lucheva B, Iliev P, Kolev D (2017) Hydro-pyrometallurgical treatment of copper converter
flue dust. J Chem Technol Metall 52:320–325
12. Xu Y, Li Y, Ding K, Kong Q (2005) A new process for comprehensive utilization of high-As
dust from Isa furnace. China Nonferrous Metall 5:16–18
13. Cui Z, Wang Z, Zhao B (2014) Features of the bottom blown oxygen copper smelting technology. In: Bassa R, Parra R, Luraschi A, Demetrio S (eds) Proceedings of Nickolas Themelis Symposium on pyrometallurgy and process engineering. The Chilean Institute of Mining Engineers,
Santiago, Chile, pp 351–360, ISBN: 978-956-7180-10-3
14. Zhao B, Cui Z, Wang Z (2013) A new copper smelting technology—bottom blown oxygen
furnace developed at Dongying Fangyuan nonferrous metals. In: Jiang T, Hwang J-Y, Mackey
PJ, Yucel O, Zhou G (eds) Proceedings of 4th international symposium on high-temperature
metallurgical processing. Wiley, pp 3–10, ISBN: 978-1-118-60569-1
15. Wang Z, Wang H, Guo X, Cui Z, Zhao B (2018) Simplified process for making anode copper.
In: Hwang J-Y, Jiang T, Kennedy MW, Gregurek D, Wang S, Zhao B, Yucel O, Keskinkilic
E, Downey JP, Peng Z, Padilla R (eds) 9th international symposium on high-temperature
metallurgical processing. Springer International Publishing, pp 3–12, ISBN: 978-3-319-721378
16. Schriner D, Taylor P, Grogan J (2016) A review of slag chemistry in lead recycling. In: Reddy
RG, Chaubal P, Chris Pistorius P, Pal U (eds) Advances in molten slags, fluxes, and salts:
proceedings of the 10 th international conference on molten slags, fluxes and salts (MOLTEN16).
TMS (The Minerals, Metals & Materials Society), pp 879–888
17. Bale CW, Bélisle E, Chartrand P, Decterov SA, Eriksson G, Gheribi AE, Hack K, Jung IH,
Kang YB, Melançon J, Pelton AD, Petersen S, Robelin C, Sangster J, Spencer P, Van Ende
MA (2016) FactSage thermochemical software and databases. CALPHAD 54:35–53