Activated carbon (AC) is employed as a cost-effective catalyst for cathodic oxygen reduction in microbial fuel cells (MFC). The fabrication protocols of AC-based cathodes are conducted at different applied pressures (175-3500. psi) and treatment temperatures (25-343. °C). The effects of those parameters along with changes in the surface morphology and chemistry on the cathode performances are comprehensively examined. The cathodes are tested in a three-electrode setup and explored in single chamber membraneless MFCs (SCMFCs). The results show that the best performance of the AC-based cathode is achieved when a pressure of 1400. psi is applied followed by heat treatment of 150-200. °C for 1. h. The influence of the applied pressure and the temperature of the heat treatment on the electrodes and SCMFCs is demonstrated as the result of the variation in the transfer resistance, the surface morphology and surface chemistry of the AC-based cathodes tested.
Santoro, C., Artyushkova, K., Babanova, S., Atanassov, P., Ieropoulos, I., Grattieri, M., et al. (2014). Parameters Characterization And Optmization Of Activated Carbon (AC) Cathodes For Microbial Fuel Cell Applications. BIORESOURCE TECHNOLOGY, 163, 54-63 [10.1016/j.biortech.2014.03.091].
Parameters Characterization And Optmization Of Activated Carbon (AC) Cathodes For Microbial Fuel Cell Applications
Santoro CCo-primo
;
2014
Abstract
Activated carbon (AC) is employed as a cost-effective catalyst for cathodic oxygen reduction in microbial fuel cells (MFC). The fabrication protocols of AC-based cathodes are conducted at different applied pressures (175-3500. psi) and treatment temperatures (25-343. °C). The effects of those parameters along with changes in the surface morphology and chemistry on the cathode performances are comprehensively examined. The cathodes are tested in a three-electrode setup and explored in single chamber membraneless MFCs (SCMFCs). The results show that the best performance of the AC-based cathode is achieved when a pressure of 1400. psi is applied followed by heat treatment of 150-200. °C for 1. h. The influence of the applied pressure and the temperature of the heat treatment on the electrodes and SCMFCs is demonstrated as the result of the variation in the transfer resistance, the surface morphology and surface chemistry of the AC-based cathodes tested.File | Dimensione | Formato | |
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