Insights on Catalytic Bio‐Slurry Degradation to Biofuels Using an Electrolytic Biomass Solar Cell

ABSTRACT This study focused on the production of hydrocarbon fuels from bio‐slurry through an innovative electrolytic process powered by solar energy. The bio‐slurry, a byproduct of anaerobic digestion, presents disposal challenges, especially in areas without farmlands for use as organic biofertilizer. To address this issue and contribute to cleaner energy production, the study aimed to catalyze bio‐slurry degradation into hydrocarbon fuels using an electrolytic biomass solar cell (EBSC). Powered by a 40 W solar panel, the setup employed a 9000 mL bio‐slurry capacity, alongside geo‐catalysts and iron oxide catalysts to enhance the efficiency of degradation and gas production. The experiment yielded significant volumes of biofuels, including bio‐methane (20.42%), bio‐ethane (24.00%), and propane (35.10%), with gas composition analyzed via GC‐MS. The use of the “Ebarra” (a geo‐catalyst) electrocatalyst significantly increased methane and ethane production. This process could be scaled up for industrial applications with the use of solar panels of higher capacity in large bio‐slurry systems, as well as proportionate catalysts to enhance the process. This process presents a sustainable method for converting bio‐slurry into valuable hydrocarbon fuels, contributing to environmental conservation and renewable energy development. This method not only converts bio‐slurry into valuable hydrocarbon fuels but also minimizes harmful byproducts, contributing to a lower carbon footprint compared to traditional energy production methods, such as the use of water to produce Hydrogen energy, among others.

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Publication Details

Journal
Energy Science & Engineering
Published
2025-10-09
DOI
https://doi.org/10.1002/ese3.70300
Primary Topic
Microbial Fuel Cells and Bioremediation
Type
article
Field-Weighted Citation Impact
0.00

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article

Insights on Catalytic Bio‐Slurry Degradation to Biofuels Using an Electrolytic Biomass Solar Cell

Marjan Abdallah Khamis, Aloys M. Osano, Peterson Momanyi Gutto, Samwel K. Cheruiyot
Energy Science & Engineering
Microbial Fuel Cells and Bioremediation
article

Insights on Catalytic Bio‐Slurry Degradation to Biofuels Using an Electrolytic Biomass Solar Cell

Marjan Abdallah Khamis, Aloys M. Osano, Peterson Momanyi Gutto, Samwel K. Cheruiyot
article en

Abstract

ABSTRACT This study focused on the production of hydrocarbon fuels from bio‐slurry through an innovative electrolytic process powered by solar energy. The bio‐slurry, a byproduct of anaerobic digestion, presents disposal challenges, especially in areas without farmlands for use as organic biofertilizer. To address this issue and contribute to cleaner energy production, the study aimed to catalyze bio‐slurry degradation into hydrocarbon fuels using an electrolytic biomass solar cell (EBSC). Powered by a 40 W solar panel, the setup employed a 9000 mL bio‐slurry capacity, alongside geo‐catalysts and iron oxide catalysts to enhance the efficiency of degradation and gas production. The experiment yielded significant volumes of biofuels, including bio‐methane (20.42%), bio‐ethane (24.00%), and propane (35.10%), with gas composition analyzed via GC‐MS. The use of the “Ebarra” (a geo‐catalyst) electrocatalyst significantly increased methane and ethane production. This process could be scaled up for industrial applications with the use of solar panels of higher capacity in large bio‐slurry systems, as well as proportionate catalysts to enhance the process. This process presents a sustainable method for converting bio‐slurry into valuable hydrocarbon fuels, contributing to environmental conservation and renewable energy development. This method not only converts bio‐slurry into valuable hydrocarbon fuels but also minimizes harmful byproducts, contributing to a lower carbon footprint compared to traditional energy production methods, such as the use of water to produce Hydrogen energy, among others.

Energy Science & EngineeringVol. 13(12)
University of Nairobi (KE), Maasai Mara University (KE)
Jomo Kenyatta University of Agriculture and Technology
Openalex Percentile: Top 74%
Microbial Fuel Cells and Bioremediation
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