Effects of electrolysis on Microcystis aeruginosa in water

Microcystis aeruginosa (blue-green algae) is of concern in relation to drinking water because of its ability to produce toxins and odors that can significantly impair water quality. The drinking water contaminated with toxic cyanobacteria could cause the death of the domestic and wild animals and the cases of human illness. To minimize the threat, the treatment of eutrophicated water containing algae (M.aeroginosa) was conducted via electrochemical oxidation process, with titanium based anode coated with RuO₂ in this study. The research showed that the electrochemical oxidation process was effective in inhibiting the growth of the algae such as M.aeruginosa. The electrolysis parameters such as: electrolysis time, current density, and electrodes distance were analyzed by the orthogonal collocation method. The results showed the electrolysis time was the dominant factor for the inhibition of the algal growth. The optimal operating conditions were: current density of 10 mA/cm² and the electrodes distance of 6 cm. The inhibitive efficiency was 92.64% with the electrolysis time of 40 minutes. The preliminary mechanism of this process was also explored and proposed in this paper.

Effects of electrolysis on Microcystis aeruginosa in water

Microcystis aeruginosa (blue-green algae) is of concern in relation to drinking water because of its ability to produce toxins and odors that can significantly impair water quality. The drinking water contaminated with toxic cyanobacteria could cause the death of the domestic and wild animals and the cases of human illness. To minimize the threat, the treatment of eutrophicated water containing algae (M.aeroginosa) was conducted via electrochemical oxidation process, with titanium based anode coated with RuO₂ in this study. The research showed that the electrochemical oxidation process was effective in inhibiting the growth of the algae such as M.aeruginosa. The electrolysis parameters such as: electrolysis time, current density, and electrodes distance were analyzed by the orthogonal collocation method. The results showed the electrolysis time was the dominant factor for the inhibition of the algal growth. The optimal operating conditions were: current density of 10 mA/cm² and the electrodes distance of 6 cm. The inhibitive efficiency was 92.64% with the electrolysis time of 40 minutes. The preliminary mechanism of this process was also explored and proposed in this paper.