Statistical study of the influence of the geometric distribution of the cathode in the production of electrical energy in a sediment microbial fuel cell


  • Marlenne Feregrino-Rivas TecNM/Instituto Tecnológico de Culiacán
  • Blenda Ramírez-Pereda CONACYT-TecNM/Instituto Tecnológico de Culiacán, Juan de Dios Batíz 310, Col. Guadalupe, CP 80220, Culiacán, Sinaloa, México
  • Francisco Estrada-Godoy ESIA IPN Ticomán. Posgrado en Geociencias y Administración de los Recursos Naturales. Av. Ticomán 600, Col. San José Ticomán, Delg. Gustavo A. Madero, Postal Code 07340. México.



Microbial sediment fuel cell, River sediments, Electrode design, Bioelectricity, Advanced statistical techniques


The negative impact on the environment by the exploitation and generation of energy from fossil fuels imposes the need to search for new sources of renewable and sustainable energy. Sediment Microbial Fuel Cells (S-MFC) are a developing technology to produce bioelectricity. Some microorganisms present in sediments of river environments can produce electrons during the biochemical reactions of their metabolism. One of the fundamental aspects in the efficiency of a S-MFC are the electrodes of the bioreactor. The present investigation focused on the study and statistical demonstration of the influence of the cathode design of a S-MFC on the production of bioelectricity from river sediments. Two cathodes of an undivided CCM-S were designed. The electrodes were made of Unidirectional Carbon Fiber (UCF). The total anode area was 81 cm2, the evaluated cathodes had areas of 81 cm2 and 40.5 cm2. Sediment and water samples were collected from the Culiacán River. The total working volume was 1500 mL. Two S-MFC were studied, in the first bioreactor the cathode was placed vertically and completely submerged in the working electrolyte, while the cathode of the second cell was placed horizontally and partially submerged. The electric potential difference produced by both cells for 40 days was determined. An advanced ANOVA was performed to compare the means of the voltage distributions. The results showed that it is possible to obtain electrical energy from river sediments. Maximum voltage values of 513 mV and 664.7 mV were obtained for cells 1 and 2, respectively, showing that the arrangement of the cathode in the cell influences the energy produced. The advanced statistical study verified that there are significant differences between the means of the voltage distributions of both cells, with a p-value of 0.01 with a confidence level of 95%.


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C. K. Chanda, and D. Bose, "Challenges of employing renewable energy for reducing greenhouse gases (GHGs) and carbon footprint," Rev. Elsevier, vol. 3, pp. 346-365, 2020. DOI:

J. Yan, "The impact of climate policy on fossil fuel consumption: Evidence from the Regional Greenhouse Gas Initiative (RGGI)," Rev. Energy Economics, vol. 100, August 2021. DOI:

B. A. Gyamfi, F. F. Adedoyin, M. A. Bein, F. V. Bekun, and D. Q. Agozie, "The anthropogenic consequences of energy consumption in E7 economies: Juxtaposing roles of renewable, coal, nuclear, oil and gas energy: Evidence from panel quantile method," Rev. Journal of Clearner Production, vol. 295, 1 May 2021. DOI:

I. Dincer, and M. F. Ezzat, "Renewable energy production," Rev. Elsevier, vol. 3, pp. 126-207, 2018. DOI:

D. Icaza, D. Borge-Diez, and S. P. Galindo, "Analysis and proposal of energy planning and renewable energy plans in South America: Case study of Ecuador," Rev. Renewable Energy, vol. 182, January 2021. DOI:

D. Mazzeo, N. Matera, P. De Luca, C. Baglivo, P. M. Congedo, and G. Oliveti, "A literature review and statistical analysis of photovoltaic-wind hybrid renewable system research by considering the most relevant 550 articles: An upgradable matrix literature database," Rev. Journal of Cleaner Production, vol. 295, 1 May 2021. DOI:

T. D. Tessema, and T. A. Yemata, "Experimental dataset on the effect of electron acceptors in energy generation from brewery wastewater via a microbial fuel cell" Rev. Elsevier, vol. 37, August 2021. DOI:

K. Obileke, H. Onyeaka, E. L. Meyer, and N. Nwokolo, "Microbial fuel cells a renewable energy technology for bio-electricity generation: A mini-review," Rev. Elsevier, 2021. DOI:

R. Suresh, S. Rajendran, P. S. Kumar, K. Dutta, and D. V. N. Vo, "Current advances in microbial fuel cell technology toward removal of organic contaminants - A review," Rev. Chemosphere, vol 287, January 2021. DOI:

L. Mekuto, A. V. A. Olowolafe, S. Pandit, N. Dyantyi, P. Nomngongo, and R. Huberts, "Microalgae as a biocathode and feedstock in anode chamber for a selfsustainable microbial fuel cell technology: A review," Rev. Elsevier, vol. 31, pp. 7-16, 2020. DOI:

O. Modin, and F. Aulenta, "Three promising applications of microbial electrochemistry for the water sector," Rev. Environmental Science: Water Research and Technology, vol. 3, pp. 391-42, 2017. DOI:

S. Prathiba, P. S. Kumar, and D. V. N. Vo, "Recent advancements in microbial fuel cells: A review on its electron transfer mechanisms, microbial community, types of substrates and design for bio-electrochemical treatment," Rev. Chemosphere, vol. 286, January 2021. DOI:

C. Santoro, C. Arbizzani, B. Erable, and I. Ieropoulos, "Microbial fuel cells: From fundamentals to applications," Rev. A review. Journal of Power Sources, vol. 356, pp. 225-244, 2017. DOI:

K. Kim, S. Nakashita, K. Yoshimura, and T. Hibino, "In situ electrochemical remediation of brackish river sediment rich in aromatic organic matter using steel-slag-combined sediment microbial fuel cells" Rev. Journal of Cleaner Production, vol. 315, 15 September 2021. DOI:

J. Hwang, K. Kim, E. P. Resurreccion, and W. H. Lee, "Surfactant addition to enhance bioavailability of bilge water in single chamber microbial fuel cells (MFCs)," Rev. Journal of Hazardous Materials, vol. 368, pp. 732-738, 2019. DOI:

N. Collins N, G. Solomon O, L. Abayomi T, K. Sidikat I, S. Olusegun D, O. Clement K, A. Jacob K, S. Abolade, and B. Ayoola, "Microbial fuel cell: Bio-energy production from Nigerian corn starch wastewater using iron electrodes," Rev. materialstoday; PROCEEDINGS, vol. 46, pp. 5565-5569, 2021. DOI:

Z. Xu, S. Chen, S. Guo, D. Wan, H. Xu, W. Yan, X. Jin, and J. Feng, "New insights in light-assisted microbial fuel cells for wastewater treatment and power generation: A win-win cooperation," Rev. Journal of Power Sources, vol. 501, 31 July 2021. DOI:

M. Gulamhussein, D. and G. Randall, "Design and operation of plant microbial fuel cells using municipal sludge," Rev. Elsevier, vol. 38, 2020. DOI:

C. T. Wang, T. Sangeetha, F. Zhao, A. Garg, C. T. Chang, and C. H. Wang, "Sludge selection on the performance of sediment microbial fuel cells," Rev. Energy Research, 26 June 2018. DOI:

C. Iwaoka, y S. Imada, T. Taniguchi, S. Du, N. Yamanaka, and R. Tateno, "The impacts of soil fertility and salinity on soil nitrogen dynamics mediated by the soil microbial community beneath the halophytic shrub tamarisk," Rev. Microbial Ecology, vol.75(4), pp. 985-996, 2018. DOI:

A. Zaeni, P. E. Susilowati, Alwahab, and L. O. Ahmad. "Renewable energy from sediment microbial fuel cell technology from Kendari Bay swamp sediments," Rev. AIP, 2 June 2020. DOI:

X. Yang, y S. Chen, "Microorganisms in sediment microbial fuel cells: Ecological niche, microbial response, and environmental function," Rev. Elsevier, vol. 756, pp. 1441-1445, February 2021. DOI:

K. Joksimović, A. Žeradanin, D. Randjelović, J. Avdalović, S. Miletć, G. Gojgić-Cvijović, and V. P. Beškoski, "Optimization of microbial fuel cell operation using Danube River sediment," Rev. Elsevier, vol. 476, 15 November 2020. DOI:

X. Lu, K. A. Haxthausen, A. L. Brock, and S. Trapp, "Turnover of lake sediments treated with sediment microbial fuel cells: a long-term study in a eutrophic lake," Rev. Science of the Total Environment, vol.796, 20 November 2021. DOI:

M. A. Ghazi Azari, R. Gheshlaghi, M. A. Mahdavi, and E. Abazarian, "Electricity generation from river sediments using a partitioned open channel sediment microbial fuel cell," Rev. Elsevier Ltd, 2017. DOI:

G. A. Mohammad Ali, G. Reza, A. Mahmood, and A. Elham, "Electricity generation from river sediments using a partitioned open channel sediment microbial fuel cell," Rev. Elsevier, vol. 42, pp. 5252-5260, 2017. DOI:

B. Neethu, and M. M. Ghangrekar, "Electricity generation through a photo sediment microbialfuel cell using algae at the cathode," Rev. Water Science & Technology, 2017. DOI:

P. Namour, and L. Jobin, "Electrochemistry, a tool to enhance self-purification in water systems while preventing the emission of noxious gases (greenhouse gases, H2S, NH3)," Rev. Current Opinion in Electrochemistry, vol. 11, pp. 25-33, October 2018. DOI:

H. U. D. Nguyen, D. T. Nguyen, and K. Taguchi, "A Novel Design Portable Plugged-Type Soil Microbial Fuel Cell for Bioelectricity Generation," Rev. Energies MDPI, 20 December 2020. DOI:

F. T. Kabutey, J. Dinga, Q. Zhao, P. Antwi, F. K. Quashie, V. Tankapa, and W. Zhang, "Pollutant removal and bioelectricity generation from urban river sediment using a macrophyte cathode sediment microbial fuel cell (mSMFC)," Rev. Bioelectrochemistry, 25 January 2019. DOI:

T. Ewing, P. T. Ha, and H. Beyenal, "Evaluation of long-term performance of sediment microbial fuel cells and the role of natural resources," Rev. Elsevier Ltd, 2017. DOI:

F. Vicari, M. Albamonte, A. Galia, and O. Scialdone, "Effect of mode of operation, substrate and final electron acceptor on single-chamber membraneless microbial fuel cell operating with a mixed community," Rev. Journal of Electroanalytical Chemistry, vol. 814, pp. 104-110, 1 April 2018. DOI:

K. Obileke, H. Onyeaka, E. L. Meyer, and N. Nwokolo, "Microbial fuel cells, a renewable energy technology for bio-electricity generation: A mini-review," Rev, Vol. 125, April 2021. DOI:

Z. Najafgholi, and M. Rahimnejad, "Improvement of sediment microbial fuel cell performance by application of sun light and biocathode," Rev. Springer, 17 August 2015. DOI:

A. Anjum, S. A. Mazari, Z. Hashmi, A. S. Jatoi, and R. Abro, "A review of role of cathodes in the performance of microbial fuel cells," Rev. Journal of Electroanalytical Chemistry, vol. 899, 15 October 2021. DOI:

J. Prasad, and R. K. Tripathi, "Scale Up Sediment Microbial Fuel Cell for Powering Led Lighting," Rev. Int. Journal of Renewable Energy Development (IJRED), Vol. 7, pp. 53-58, 2018. DOI:

R Core Team (2021). R: A language and environment for statistical computing. R Foundation for Statistical Computing, Vienna, Austria. URL

Wilcox, R.R., and Schönbrodt, F.D. (2014). The WRS package for robust statistics in R (version 0.24). Retrieved from

J. Prasad, and R. K. Tripathi, "Effect of sediment microbial fuel cell stacks on 9 V/12 V DC power supply," Rev. International Journal of Hydrogen Energy, vol. 46, pp. 14628-14638, 19 April 2020. DOI:

M. T. Jamal, and A. Pugazhendi, "Treatment of fish market wastewater and energy production using halophiles in air cathode microbial fuel cell," Rev. Journal of Environmental Management, vol. 292, 2021. DOI:

J, Prasad, and R. K. Tripathi, "Energy harvesting from sediment microbial fuel cell to supply uninterruptible regulated power for small devices," Rev. Int J Energy, vol.43, pp. 2821-2831, 2019. DOI:

J. Lawan, S. Wichai, C. Chuaypen, A. Nuiyen and T. Phenrat, "Constructed sediment microbial fuel cell for treatment of fat, oil, grease (FOG) trap effluent: Role of anode and cathode chamber amendment, electrode selection, and scalability," Rev. Elsevier, vol. 286, 21 July 2021. DOI:

E. Goleij, H. G. Taleghani, and M. S. Lashkenari, "Modified carbon cloth flexible electrode with ternary nanocomposite for high performance sediment microbial fuel cell," Rev. Elsevier, vol. 272, 1 November 2021. DOI:

CCM-S/1b partially submerged horizontal cathode



How to Cite

Feregrino-Rivas, M., Ramírez-Pereda, B., & Estrada-Godoy, F. (2022). Statistical study of the influence of the geometric distribution of the cathode in the production of electrical energy in a sediment microbial fuel cell. REVISTA DE CIENCIAS TECNOLÓGICAS, 5(1), e163.



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