为了研究满足压载水排放标准的处理系统,建立了可以实现单独控制的以钛基氧化锡钌(Ti/SnO2-RuO2)为阳极材料的电催化系统和紫外辐射复合压载水处理系统。以杜氏盐藻、青岛大扁藻、锥状克里斯普藻和四爿藻为目标处理微生物,对该系统进行...为了研究满足压载水排放标准的处理系统,建立了可以实现单独控制的以钛基氧化锡钌(Ti/SnO2-RuO2)为阳极材料的电催化系统和紫外辐射复合压载水处理系统。以杜氏盐藻、青岛大扁藻、锥状克里斯普藻和四爿藻为目标处理微生物,对该系统进行微藻灭活实验结果表明,Ti/SnO2-RuO2阳极电催化-UV复合系统克服了单独电催化系统高能耗、单独紫外辐射系统紫外灯衰减迅速的缺点,在紫外辐射出度45μW/cm2、电流密度130 m A/cm2、HRT为1.0 s的条件下,处理出水4 h后活藻数量可以达到国际海事组织(IMO)对压载水中10~50μm微生物的灭活要求。总剩余氧化物(TRO)含量会随时间推移而有衰减,且没有出现细胞光复活和修复现象,说明该复合系统具有理想的持续灭活作用。展开更多
The Ti/SnO2 Sb2O4 electrode has been prepared by the electroplate sinter method. The effect of SbCl3 adding amount and sintering temperature on its electrode lifetime and oxygen evolution potential were investigated b...The Ti/SnO2 Sb2O4 electrode has been prepared by the electroplate sinter method. The effect of SbCl3 adding amount and sintering temperature on its electrode lifetime and oxygen evolution potential were investigated by means of EDX, SEM and XRD analysis. The results indicated that the electrode appeared the best performance when the SbCl3 adding amounts was 0.2g and the sintering temperature was 550℃. In optimized conditions Ti substrate was entirely covered by SnO2 Sb2O4 and the combinations among them were tight. Due to the use of electroplate method, the electrical conductivity, the oxygen evolution potential and the electrode lifetime were increased, so the electro catalytic activity and the electrochemical stability of the prepared electrode were found to be superior.展开更多
文摘为了研究满足压载水排放标准的处理系统,建立了可以实现单独控制的以钛基氧化锡钌(Ti/SnO2-RuO2)为阳极材料的电催化系统和紫外辐射复合压载水处理系统。以杜氏盐藻、青岛大扁藻、锥状克里斯普藻和四爿藻为目标处理微生物,对该系统进行微藻灭活实验结果表明,Ti/SnO2-RuO2阳极电催化-UV复合系统克服了单独电催化系统高能耗、单独紫外辐射系统紫外灯衰减迅速的缺点,在紫外辐射出度45μW/cm2、电流密度130 m A/cm2、HRT为1.0 s的条件下,处理出水4 h后活藻数量可以达到国际海事组织(IMO)对压载水中10~50μm微生物的灭活要求。总剩余氧化物(TRO)含量会随时间推移而有衰减,且没有出现细胞光复活和修复现象,说明该复合系统具有理想的持续灭活作用。
文摘The Ti/SnO2 Sb2O4 electrode has been prepared by the electroplate sinter method. The effect of SbCl3 adding amount and sintering temperature on its electrode lifetime and oxygen evolution potential were investigated by means of EDX, SEM and XRD analysis. The results indicated that the electrode appeared the best performance when the SbCl3 adding amounts was 0.2g and the sintering temperature was 550℃. In optimized conditions Ti substrate was entirely covered by SnO2 Sb2O4 and the combinations among them were tight. Due to the use of electroplate method, the electrical conductivity, the oxygen evolution potential and the electrode lifetime were increased, so the electro catalytic activity and the electrochemical stability of the prepared electrode were found to be superior.
