In this paper, a laboratory-scale process which combined electrolysis (EL) and electrodialysis (ED) was developed to treat copper-containing wastewater. The feasibility of such process for copper recovery as well as water reuse was determined. Effects of three operating parameters, voltage, initial Cu(2+) concentration and water flux on the recovery of copper and water were investigated and optimized. The results showed that about 82% of copper could be recovered from high concentration wastewater (HCW, >400 mg/L) by EL, at the optimal conditions of voltage 2.5 V/cm and water flux 4 L/h: while 50% of diluted water could be recycled from low concentration wastewater (LCW, <200 mg/L) by ED, at the optimal conditions of voltage 40V and water flux 4 L/h. However, because of the limitation of energy consumption (EC), LCW for EL and HCW for ED could not be treated effectively, and the effluent water of EL and concentrated water of ED should be further treated before discharged. Therefore, the combination process of EL and ED was developed to realize the recovery of copper and water simultaneously from both HCW and LCW. The results of the EL-ED process showed that almost 99.5% of copper and 100% of water could be recovered, with the energy consumption of EL approximate to 3 kW h/kg and ED approximate to 2 kW h/m(3). According to SEM and EDX analysis, the purity of recovered copper was as high as 97.9%. (C) 2011 Elsevier B.V. All rights reserved.