萘普生                        
                
                                
                        
                            电化学                        
                
                                
                        
                            流出物                        
                
                                
                        
                            化学                        
                
                                
                        
                            氯化物                        
                
                                
                        
                            降级(电信)                        
                
                                
                        
                            电极                        
                
                                
                        
                            还原电位                        
                
                                
                        
                            氧化还原                        
                
                                
                        
                            无机化学                        
                
                                
                        
                            核化学                        
                
                                
                        
                            有机化学                        
                
                                
                        
                            废物管理                        
                
                                
                        
                            医学                        
                
                                
                        
                            电信                        
                
                                
                        
                            替代医学                        
                
                                
                        
                            物理化学                        
                
                                
                        
                            病理                        
                
                                
                        
                            计算机科学                        
                
                                
                        
                            工程类                        
                
                        
                    
            作者
            
                Miguel Ángel López Zavala,Diego Anglés Vega            
         
                    
            出处
            
                                    期刊:Water
                                                         [Multidisciplinary Digital Publishing Institute]
                                                        日期:2021-12-15
                                                        卷期号:13 (24): 3604-3604
                                                        被引量:3
                                 
         
        
    
            
        
                
            摘要
            
            In this study, stainless-steel electrodes were used to effectively oxidize naproxen and its transformation products in surface water by electrochemical oxidation in short reaction times. An evaluation of the effects of current density, chloride concentrations, and pH on the electrochemical oxidation process (mechanisms, kinetics, and reaction times) was conducted. Results showed that degradation rates of naproxen were greater, and the reaction times were shorter than those reported in other studies for other compounds and electrode materials. Oxidation naproxen and its transformation products were faster at high current densities, high chloride concentrations, and low pH conditions; however, good performance of the electrochemical oxidation process was observed at 16.3 mA/cm2 and pH 5 for both the naproxen and its transformation products, which were oxidized in only 15 min for the treated effluent and 30 min in the case of sludge. At pH 3 and 5, the number of transformation products and the reaction times required for achieving complete oxidation were greater in sludge than in the treated effluent; meanwhile, at pH 7 and 9, the number of transformation products and reaction times needed for non-detection were of the same order in both the treated effluent and the sludge.
         
            
 
                 
                
                    
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