Multi-objective optimization of heavy metals bioleaching from discarded mobile phone PCBs: Simultaneous Cu and Ni recovery using Acidithiobacillus ferrooxidans

•Bioleaching ability was examined for heavy metals recovery from mobile phone PCBs.•Multi-objective optimization under RSM was applied to maximize Cu and Ni recovery.•Two modified quadratic models were constructed to predict bioleaching efficiency.•Particle size was detected with a high important po...

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Veröffentlicht in:Separation and purification technology 2015-06, Vol.147, p.210-219
Hauptverfasser: Arshadi, M., Mousavi, S.M.
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description •Bioleaching ability was examined for heavy metals recovery from mobile phone PCBs.•Multi-objective optimization under RSM was applied to maximize Cu and Ni recovery.•Two modified quadratic models were constructed to predict bioleaching efficiency.•Particle size was detected with a high important positive effect on the Cu recovery.•pH was found as the most important factor on the Ni recovery with a negative effect. The present study examined bioleaching of heavy metals from mobile phone printed circuit boards (MPPCBs) using adapted Acidithiobacillus ferrooxidans. The adaptation phase (10% v/v inoculum) began with 1g PCB powder per 1L culture medium and continued for 55days to a level of 20g PCB powder per 1L medium. The factors that examined for metal bioleaching were initial pH, initial Fe3+ concentration, pulp density and particle size. To maximize simultaneous extraction of Cu and Ni from MPPCBs, these factors were optimized under a multi-objective optimization strategy using the central composite design of response surface methodology. Two modified quadratic models were selected to predict the interactions and behavior of the influence parameters on the bioleaching of Cu and Ni from e-waste samples. An initial pH of 1, initial Fe3+ concentration of 4.18g/l, pulp density of 8.5g/l and particle size of 114.02μm (#100mesh) were determined as the optimal conditions. Under these conditions, 100% extraction of Cu and Ni was achieved. The pH, Eh, bacterial count, and Fe3+ concentration were varied over time and measured under optimal conditions.
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The present study examined bioleaching of heavy metals from mobile phone printed circuit boards (MPPCBs) using adapted Acidithiobacillus ferrooxidans. The adaptation phase (10% v/v inoculum) began with 1g PCB powder per 1L culture medium and continued for 55days to a level of 20g PCB powder per 1L medium. The factors that examined for metal bioleaching were initial pH, initial Fe3+ concentration, pulp density and particle size. To maximize simultaneous extraction of Cu and Ni from MPPCBs, these factors were optimized under a multi-objective optimization strategy using the central composite design of response surface methodology. Two modified quadratic models were selected to predict the interactions and behavior of the influence parameters on the bioleaching of Cu and Ni from e-waste samples. An initial pH of 1, initial Fe3+ concentration of 4.18g/l, pulp density of 8.5g/l and particle size of 114.02μm (#100mesh) were determined as the optimal conditions. 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The present study examined bioleaching of heavy metals from mobile phone printed circuit boards (MPPCBs) using adapted Acidithiobacillus ferrooxidans. The adaptation phase (10% v/v inoculum) began with 1g PCB powder per 1L culture medium and continued for 55days to a level of 20g PCB powder per 1L medium. The factors that examined for metal bioleaching were initial pH, initial Fe3+ concentration, pulp density and particle size. To maximize simultaneous extraction of Cu and Ni from MPPCBs, these factors were optimized under a multi-objective optimization strategy using the central composite design of response surface methodology. Two modified quadratic models were selected to predict the interactions and behavior of the influence parameters on the bioleaching of Cu and Ni from e-waste samples. An initial pH of 1, initial Fe3+ concentration of 4.18g/l, pulp density of 8.5g/l and particle size of 114.02μm (#100mesh) were determined as the optimal conditions. Under these conditions, 100% extraction of Cu and Ni was achieved. 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The present study examined bioleaching of heavy metals from mobile phone printed circuit boards (MPPCBs) using adapted Acidithiobacillus ferrooxidans. The adaptation phase (10% v/v inoculum) began with 1g PCB powder per 1L culture medium and continued for 55days to a level of 20g PCB powder per 1L medium. The factors that examined for metal bioleaching were initial pH, initial Fe3+ concentration, pulp density and particle size. To maximize simultaneous extraction of Cu and Ni from MPPCBs, these factors were optimized under a multi-objective optimization strategy using the central composite design of response surface methodology. Two modified quadratic models were selected to predict the interactions and behavior of the influence parameters on the bioleaching of Cu and Ni from e-waste samples. An initial pH of 1, initial Fe3+ concentration of 4.18g/l, pulp density of 8.5g/l and particle size of 114.02μm (#100mesh) were determined as the optimal conditions. Under these conditions, 100% extraction of Cu and Ni was achieved. The pH, Eh, bacterial count, and Fe3+ concentration were varied over time and measured under optimal conditions.</abstract><pub>Elsevier B.V</pub><doi>10.1016/j.seppur.2015.04.020</doi><tpages>10</tpages></addata></record>
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subjects Acidithiobacillus ferrooxidans
Bacteria
Bacterial leaching
Bioleaching
Copper
Density
Mathematical models
Mobile phone PCBs
Multi-objective optimization
Nickel
Optimization
Response surface methodology
title Multi-objective optimization of heavy metals bioleaching from discarded mobile phone PCBs: Simultaneous Cu and Ni recovery using Acidithiobacillus ferrooxidans
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