A platform for research: civil engineering, architecture and urbanism
A platform for research: civil engineering, architecture and urbanism
Continuous bioelectricity generation through treatment of Victoria blue R: A novel microbial fuel cell operation
A novel two-chamber microbial fuel cell (MFC) operation with a continuous anaerobic–aerobic decolorization system was developed to improve the degradation of the triphenylmethane dye, Victoria blue R (VBR). In addition, bioelectricity was generated during the VBR degradation process, and the operation parameters were optimized. The results indicated that the VBR removal efficiency and electricity generation were affected by the VBR concentration, liquid retention time (LRT), external resistance, gas retention time (GRT), and shock loading. The optimal operation parameters were as follows: VBR concentration, 600 mg L−1; LRT, 24 h; external resistance, 3300 Ω; and GRT, 60 s. Under these operating conditions, the VBR removal efficiency, COD removal efficiency, and power density were 98.2% ± 0.3%, 97.6% ± 0.5%, and 30.6 ± 0.4 mW m−2, respectively. According to our review of the relevant literature, this is the first paper to analyze the electrical characteristics of a continuous two-chamber MFC operation and demonstrate the feasibility of the simultaneous electricity generation and decolorization of VBR.
Continuous bioelectricity generation through treatment of Victoria blue R: A novel microbial fuel cell operation
A novel two-chamber microbial fuel cell (MFC) operation with a continuous anaerobic–aerobic decolorization system was developed to improve the degradation of the triphenylmethane dye, Victoria blue R (VBR). In addition, bioelectricity was generated during the VBR degradation process, and the operation parameters were optimized. The results indicated that the VBR removal efficiency and electricity generation were affected by the VBR concentration, liquid retention time (LRT), external resistance, gas retention time (GRT), and shock loading. The optimal operation parameters were as follows: VBR concentration, 600 mg L−1; LRT, 24 h; external resistance, 3300 Ω; and GRT, 60 s. Under these operating conditions, the VBR removal efficiency, COD removal efficiency, and power density were 98.2% ± 0.3%, 97.6% ± 0.5%, and 30.6 ± 0.4 mW m−2, respectively. According to our review of the relevant literature, this is the first paper to analyze the electrical characteristics of a continuous two-chamber MFC operation and demonstrate the feasibility of the simultaneous electricity generation and decolorization of VBR.
Continuous bioelectricity generation through treatment of Victoria blue R: A novel microbial fuel cell operation
Chen, Chih-Yu (author) / Wang, Guey-Horng (author) / Tsai, Teh-Hua (author) / Chen, Wan-Tzu (author) / Chung, Ying-Chien (author)
Journal of Environmental Science and Health, Part A ; 52 ; 916-920
2017-07-29
5 pages
Article (Journal)
Electronic Resource
English
Optimization of Bioelectricity Generation in Constructed Wetland-Coupled Microbial Fuel Cell Systems
| DOAJ | 2017