Hydrometallurgical process innovation
References (42)
- et al.
Recovery of copper powder from copper concentrates and from solutions of copper (II) sulfates using sulfur dioxide and aqueous acetonitrile
Hydrometallurgy
(1981) - et al.
Hydrometallurgical treatment of carbon steel electric arc furnace dusts by the UBC-Chaparral Process
Hydrometallurgy
(1990) - et al.
The Sherritt-Cominco Process—Part I: the process
CIM Bull.
(1978) - et al.
The Sherritt-Cominco Process—Part II: pilot plant operation
CIM Bull.
(1978) - et al.
The Sherritt-Cominco Process—Part III: commercial implications
CIM Bull.
(1978) - et al.
Anaconda's arbiter process for copper
CIM Bull.
(1974) - et al.
Hydrometallurgical process for the production of copper
(1974) - et al.
The CLEAR process, a DUVAL Corporation development
Erzmetall
(1980) Cyprus announces technical success of copper process
J. Metals
(1977)- et al.
Nitric-sulfuric leach process for the recovery of copper from concentrate
Min. Eng.
(1981)
Nitric-sulfuric leach process improvements
Min. Eng.
Copper recovery from copper concentrates by the UBC-Cominco ferric chloride leach route
Copper hydrometallurgy
Hydrometallurgy of copper and silver in solvent mixtures
Search
Hydrometallurgical processing of Inco's carbonyl residue
Process for the recovery of copper from its ores and minerals
Report for Cominco, Ltd.
Reduction leaching of chalcopyrite
Iron copper separation by reduction leaching
Reverse leaching of chalcopyrite
Acid pressure leaching of chalcocite
Cited by (65)
Current trends and future perspectives of biobased methods for recovery of metals from WEEE for a sustainable environment
2021, Environmental Management of Waste Electrical and Electronic EquipmentRapid leaching and recovery of valuable metals from spent Lithium Ion batteries (LIBs) via environmentally benign subcritical nickel-containing water over chlorinated polyvinyl chloride
2020, Journal of Hazardous MaterialsCitation Excerpt :However, most of these solvents, such as nitric acid, hydrochloric acid, and sulfuric acid are highly corrosive and hazardous to the environment limiting the application of hydrometallurgy technology in the recycling of spent LIBs (Nayl et al., 2017; Yang et al., 2017; Zhao et al., 2019). Furthermore, the use of H2O2 as a reducing agent for attaining high leaching efficiency of Li, Co, and other metals also make it a low profitable technology (Dutta et al., 2018; Onyedika et al., 2012; Peters, 1992). Therefore, development of a new cost-effective and eco-friendly technology is urgent need for the recycling of spent LIBs.
Chlorinated polyvinyl chloride (CPVC) assisted leaching of lithium and cobalt from spent lithium-ion battery in subcritical water
2020, Journal of Hazardous MaterialsCitation Excerpt :On the other hand, the use of hydrometallurgy is limited due to the use of corrosive solvents such as sulfuric acid. Furthermore, the use of H2O2 as reducing agent for attaining high leaching efficiency of Li and Co adds to the cost of this technology (Dutta et al., 2018; Onyedika et al., 2012; Peters, 1992). Thus, there is an urgent need to develop a new cost effective and eco-friendly technology for recycling of spent LIBs.
A study on zinc recovery from leach solutions using Ionquest 801 and its mixture with D2EHPA
2012, Minerals EngineeringCitation Excerpt :Zinc sulphide ore has been the major source for zinc production. The process involving Roast–Leach–Electrowin (RLE) has been used to treat this kind of ores (Peters, 1992). With the depletion of zinc sulphide ores, zinc recovery from other type of ores and secondary resources attracts much attention (Rashchi et al., 2005; Gouvea and Morais, 2007; Vahidi et al., 2009; Lewis et al., 2011).
Catalytic oxidation mechanism of oxy-nitrogen species (NO <inf>x</inf>) in FeSO <inf>4</inf> electrolyte
2011, Nitric Oxide - Biology and Chemistry