Zhang, Qinghua; Zhang, Lei; Li, Zehua; Zhang, Lixia; Li, Daping published the artcile< Enhancement of fipronil degradation with eliminating its toxicity in a microbial fuel cell and the catabolic versatility of anodic biofilm>, Electric Literature of 35852-58-5, the main research area is fipronil degradation anodic biofilm microbial fuel cell toxicity; Catabolic versatility; Fipronil degradation; Microbial cell fuel; Microbial community; Toxicity elimination.
The degradation of fipronil was investigated in microbial fuel cells (MFCs). Almost 79% of 30 mg/L fipronil was rapidly degraded within 12 h by MFC biofilm. Based on the constructed quadratic polynomial model, a maximum fipronil degradation rate of 94.22% could be theor. achieved at pH of 7.01, 33.39 °C, and the initial fipronil concentration 74 mg/L after incubation for 72 h. The high acute toxicity of fipronil toward zebrafish was largely eliminated after degradation by the MFC. In addition, the MFC biofilm showed catabolic versatility to 4-chloronitrobenzene, sulfanilamide, fluoroglycofen, and azoxystrobin. The microbial community anal. revealed that the functional bacteria Sphaerochaeta, Pseudomonas, Azospirillum, Azoarcus, and Chryseobacterium were major predominant bacteria in the anodic biofilm. Therefore, the MFC offers a promising approach in treating the environmental contaminants due to its abilities of energy capture from waste substances and catabolic versatility to different organic compounds
Bioresource Technology published new progress about Azoarcus. 35852-58-5 belongs to class chlorides-buliding-blocks, and the molecular formula is C7H4ClF3O, Electric Literature of 35852-58-5.
Referemce:
Chloride – Wikipedia,
Chlorides – an overview | ScienceDirect Topics