ISSN: 2536-7064
Model: Open Access/Peer Reviewed
DOI: 10.31248/JBBD
Start Year: 2016
Email: jbbd@integrityresjournals.org
https://doi.org/10.31248/JBBD2018.085 | Article Number: 52FD21521 | Vol.4 (2) - April 2019
Received Date: 19 November 2018 | Accepted Date: 08 December 2018 | Published Date: 30 April 2019
Authors: Kamau J. M.* , Mbui D. N. , Mwaniki J. M. and Mwaura F. B.
Keywords: Bioremediation, chlorothalonil, MFC, microbes, power, voltage.
Pesticide’s persistence in the environment due to the relatively slow degradation mechanism leads to their bio-accumulation which in turn has adverse impacts on human health. Bio-remediation involves utilization of microbes from nature to the breakdown of organic molecules. The purpose of this study is to investigate the potential of microbes in degrading chlorothalonil. Aerobic-anaerobic combined conditions in an H-shaped double chamber microbial fuel cell (MFC) were employed for the breakdown of chlorothalonil. Decomposing tomatoes were used as the major substrate with their proximate properties being analyzed using standard method. Glucose loaded with different concentrations of chlorothalonil was introduced to the cells on day 10 when voltage production had stabilized. The voltage and current generated were monitored using a digital multi-meter while pesticide concentrations were obtained using a UV-Vis spectrophotometer. The highest voltage readings were obtained on day 9 of degradation, with values ranging from 0.463 to 0.537 V. The current ranged from 0.002 to 0.076 mA. Higher voltage and current values were recorded in solutions with lower pesticide concentration. The obtained degradation level was highest in 10 g glucose at 95.95 and 98.75% for day 10 and 20 respectively. The lowest breakdown was observed in the cells without glucose at 10.54 and 31.04% on day 10 and 20 respectively. The results demonstrate that MFC technology can be employed in mineralization of chlorinated pesticides as an alternative for incineration and photo-degradation
Adubofuor, J., Amankwah, E. A., Arthur, B. S., & Appiah, F. (2010). Comparative study related to physic-chemical properties and sensory qualities of tomato juice produced from oranges, tomatoes and carrots. African Journal of Food Science, 4(7), 427-433. | ||||
Amel, K., Imene, F., & Atef, J. (2014). Pentachlorophenol degradation by Janibacter sp., a new actinobacterium isolated from saline sediment of arid land," BioMed Research International, vol. 2014, Article ID 296472, 9 pages. Crossref |
||||
AOAC (1990) Official Methods of Analysis: Association of Analytical Chemists (14th Edn.). USA, 22209. pp. 20-34. | ||||
ASTM D (1989). Standards method of proximate analysis of coal and coke, in gaseous fuels; coal and coke section 5, vol. 05.05, Annual book of ASTM standards; 3172-73(84) p. 299. | ||||
Carlo-Rojas, Z., Bello-Mendoza, R., Figueroa, M. S., Sokolov, M. Y. (2004). Chlorothalonil degradation under anaerobic conditions in an agricultural tropical soil. Water, air, and soil pollution, 151(1-4), 397-409. Crossref |
||||
Chen, S. K., Edwards, C. A., & Subler, S. (2001). Effects of the fungicides benomyl, captan and chlorothalonil on soil microbial activity and nitrogen dynamics in laboratory incubations. Soil Biology and Biochemistry, 33(14), 1971-1980. Crossref |
||||
Hossain, M. E., Alam, M. J., Hakim, M. A., Amanullah, A. S. M., & Ahsanullah, A. S. M. (2010). An assessment of physicochemical properties of some tomato genotypes and varieties grown at Rangpur. Bangladesh Research Publication Journal, 4(3), 135-243. | ||||
Huang, L., Gan, L., Wang, N., Quan, X., Logan, B. E., & Chen, G. (2012). Mineralization of pentachlorophenol with enhanced degradation and power generation from air cathode microbial fuel cells. Biotechnology and Bioengineering, 109(9), 2211-2221. Crossref |
||||
Huang, L., Gan, L., Zhao, Q., Logan, B. E., Lu, H., & Chen, G. (2011). Degradation of pentachlorophenol with the presence of fermentable and non-fermentable co-substrates in a microbial fuel cell. Bioresource Technology, 102(19), 8762-8768. Crossref |
||||
Kamau, J. M., Mbui D. N., Mwaniki, J. M., Mwaura F. B. (2017). Cow dung to kilo watt using double chamber microbial fuel cell. Themed Engineering and Technology, (3)5, 70-79. | ||||
Katayama, A., Isemura, H., Kuwatsuka, S. (1991). Population change and characteristics of chlorothalonil degrading bacteria in soil. Journal of Pesticides Science, 16, 239-245. Crossref |
||||
Liang, B., Li, R., Jiang, D., Sun, J., Qiu, J., Zhao, Y., ... & Jiang, J. (2010). Hydrolytic dechlorination of chlorothalonil by Ochrobactrum sp. CTN-11 isolated from a chlorothalonil-contaminated soil. Current Microbiology, 61(3), 226-233. Crossref |
||||
Logan, B. E. (2009). Exoelectrogenic bacteria that power microbial fuel cells. Nature Reviews Microbiology, 7(5), 375. Crossref |
||||
Logan, B. E. (2010). Scaling up microbial fuel cells and other bioelectrochemical systems. Applied Microbiology and Biotechnology, 85(6), 1665-1671. Crossref |
||||
Logan, B. E., Hamelers, B., Rozendal, R., Schröder, U., Keller, J., Freguia, S., Verstraete, W., & Rabaey, K. (2006). Microbial fuel cells: methodology and technology. Environmental Science and Technology, 40(17), 5181-5192. Crossref |
||||
María, S. F., Gabriela, E. B., Juliana, M. S., Claudia, S. B., María, C. D., & María, J. A. (2013). Enhanced Removal of a Pesticides Mixture by Single Cultures and Consortia of Free and Immobilized Streptomyces Strains. BioMed Research International, vol. 2013, Article ID 392573, 9p. Crossref |
||||
Mori, T., Fujie, K., Kuwatsuka, S., & Katayama, A. (1996). Accelerated microbial degradation of chlorothalonil in soils amended with farmyard manure. Soil Science and Plant Nutrition, 42(2), 315-322. | ||||
Motonaga, K., Takagi, K., & Matumoto, S. (1996). Biodegradation of chlorothalonil in soil after suppression of degradation. Biology and Fertility of Soils, 23(3), 340-345. Crossref |
||||
Oko-Ibom, G. O., & Asiegbu, J. E. (2007). Aspects of tomato fruit quality as influenced by cultivar and scheme of fertilizer application. Journal of Agriculture, Food, Environment and Extension, 6(1), 1-11. Crossref |
||||
Onwuka, G. I. (2005). Food Analysis and Instrumentation (theory and practice). Naphtali prints, Nigeria. Pp. 95-96. | ||||
Pearson, D. (1976). The Chemical Analysis of Food. (7th Edn.). Churchill Livingstone. New York. Pp. 11-15. | ||||
Regitano, J. B., Tornisielo, V. L., Lavorenti, A., & Pacovsky, R. S. (2001). Transformation pathways of 14 C-chlorothalonil in tropical soils. Archives of Environmental Contamination and Toxicology, 40(3), 295-302. Crossref |
||||
Renewable Technologies (2005). Standard formula for calculating total and volatile solids. Biogas FAO. | ||||
Rominiyi, O. L. (2015) Evaluation of energy content of municipal solid waste in Ado- Ekiti Metropolis, Ekiti State, M. Eng Research Thesis, Department of Mechanical Engineering, Federal University of Technology Akure, Ondo State, Nigeria. | ||||
Sato, K., & Tanaka, H. (1987). Degradation and metabolism of a fungicide, 2, 4, 5, 6-tetra-chloroisophthalonitrile (TPN) in soil. Biology and Fertility of Soils, 3(4), 205-209. Crossref |
||||
Ukai, T., Itou, T., & Katayama, A. (2003). Degradation of chlorothalonil in soils treated repeatedly with chlorothalonil. Journal of Pesticide Science, 28(2), 208-211. Crossref |
||||
United States Environmental Protection Agency (US EPA) (1999). Office of Pesticide Programs. Special Review and Reregistration Division., Reregistration eligibility decision: chlorothalonil, US, Environmental Protection Agency Office of Pesticide Programs Special Review and Reregistration Division: Washington, D.C. | ||||
Wang, H., Xu, S., Hu, J., & Wang, X. (2009). Effect of potassium dihydrogen phosphate and bovine manure compost on the degradation of chlorothalonil in soil. Soil & Sediment Contamination, 18(2), 195-204. Crossref |
||||
Zhang, X., Cheng, S., Liang, P., Huang, X., & Logan, B. E. (2011). Scalable air cathode microbial fuel cells using glass fiber separators, plastic mesh supporters, and graphite fiber brush anodes. Bioresource Technology, 102(1), 372-375. Crossref |