Alternative Biofuel Materials for Microbial Fuel Cells from Poplar Wood
Ahmet Erensoy, Nurettin Çek
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70% confidenceThis study investigates the use of poplar wood as a biofuel material in microbial fuel cells, demonstrating a maximum power density of 8555 mW/m² and potential for electrical energy generation.
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Abstract
Abstract In this study, biofuel properties of poplar wood materials rich in organic materials were investigated for microbial fuel cells. Therefore, in this study, investigates the chemical, biochemical properties with electrochemical performance of single chamber microbial fuel cell manufactured using poplar biomass materials, natural soil, graphite anode electrode and graphite cathode electrode. With the increase in the weight of the poplar tree in the microbial fuel cells, the power density increased. SEM, EDS, FTIR analyses showed that bacillus and coccus type bacteria in the natural structure of the soil act as the catalyst in the anode electrode. Poplar wood, electrodes and bacteria have served in harmony. According to experimental results, the maximum power reaches to 16.88 mW and microbial fuel cell successfully displays a maximum power density of 8555 mW/m 2 . All these results indicate that poplar wood may be appropriate biofuel sources for electrical energy generation as an effective environmentally microbial fuel cell technology.
Key findings
- Poplar wood materials increase power density in microbial fuel cells with increasing weight.
- SEM, EDS, and FTIR analyses reveal bacteria in natural soil act as catalysts in anode electrodes.
- Maximum power reaches 16.88 mW and microbial fuel cells display maximum power density.
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Identifiers
- Journal
- ChemistrySelect
- Year
- 2018