Application of CSC Technology in Nonferrous Metallurgy
217
discharges residue and alloys smoothly and produces Cu–Co alloys with the
average grade reaching 26.98%. Meanwhile, cooper and cobalt contents in the
smelting slag can be reduced to the level of the waste slag. Recovery of copper
and cobalt reach above 91% and 80%, respectively. The smoke dust rate is about
1.8%. The copper and cobalt can be efficiently recovered from the slag with
significant enrichment effect and low smoke dust rate in Cu–Co slag treatment
with CSC technology.
Future Application of CSC Technology
CSC technology has been widely used for reduction in lead smelting process and
smelting and converting in copper smelting process and is mature and reliable. In
recent years, CSC technology has been gradually popularized in copper-nickel ore
treatment, lead smelting redox, miscellaneous material processing, zinc leach residue
treatment, Cu–Co residue treatment, and oxide ore treatment. At present, research
and development work in the fields of tin smelting, laterite-nickel ore treatment, and
the like is underway. It can be seen that CSC technology has a wide application range,
and it has a broad application prospect in nonferrous metallurgy due to its advantages
of simple material preparation, environmental protection, energy conservation, and
excellent smelting indexes.
References
1. Wang Z (2009) Process design of oxygen enriched side blown smelting converter blown
production of high nickel matte. Eng Des Res 126:14–19
2. Wang X (2016) Design and analysis of zinc leaching residue system in rotary kiln. Hunan
Nonferrous Metals 5:37–38
3. Lan Z, Lan Z, Zhang Q (2015) Research progress in utilization technology of lead zinc oxide
ore. Compr Utilization Miner Resour (5):8–12
4. Xu D (2017) The effect of particle size of lead zinc oxide ore on the reduction and volatilization
effect of rotary kiln. Compr Utilization Resour China (6):24–26
5. Liu G (2018) Study on the design of oxygen enriched side blast furnace for the treatment of
lead-zinc oxide ore. Hunan Nonferrous Metals 6:24–26
6. Wang Z, Yujia Wang (2015) Study on the new smelting process of antimony sulfide concentrate
in oxygen enriched side blown melting pool. Hunan Nonferrous Metals 6:41–44
217
discharges residue and alloys smoothly and produces Cu–Co alloys with the
average grade reaching 26.98%. Meanwhile, cooper and cobalt contents in the
smelting slag can be reduced to the level of the waste slag. Recovery of copper
and cobalt reach above 91% and 80%, respectively. The smoke dust rate is about
1.8%. The copper and cobalt can be efficiently recovered from the slag with
significant enrichment effect and low smoke dust rate in Cu–Co slag treatment
with CSC technology.
Future Application of CSC Technology
CSC technology has been widely used for reduction in lead smelting process and
smelting and converting in copper smelting process and is mature and reliable. In
recent years, CSC technology has been gradually popularized in copper-nickel ore
treatment, lead smelting redox, miscellaneous material processing, zinc leach residue
treatment, Cu–Co residue treatment, and oxide ore treatment. At present, research
and development work in the fields of tin smelting, laterite-nickel ore treatment, and
the like is underway. It can be seen that CSC technology has a wide application range,
and it has a broad application prospect in nonferrous metallurgy due to its advantages
of simple material preparation, environmental protection, energy conservation, and
excellent smelting indexes.
References
1. Wang Z (2009) Process design of oxygen enriched side blown smelting converter blown
production of high nickel matte. Eng Des Res 126:14–19
2. Wang X (2016) Design and analysis of zinc leaching residue system in rotary kiln. Hunan
Nonferrous Metals 5:37–38
3. Lan Z, Lan Z, Zhang Q (2015) Research progress in utilization technology of lead zinc oxide
ore. Compr Utilization Miner Resour (5):8–12
4. Xu D (2017) The effect of particle size of lead zinc oxide ore on the reduction and volatilization
effect of rotary kiln. Compr Utilization Resour China (6):24–26
5. Liu G (2018) Study on the design of oxygen enriched side blast furnace for the treatment of
lead-zinc oxide ore. Hunan Nonferrous Metals 6:24–26
6. Wang Z, Yujia Wang (2015) Study on the new smelting process of antimony sulfide concentrate
in oxygen enriched side blown melting pool. Hunan Nonferrous Metals 6:41–44