Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Microbial Fuel Cell coupled Microbial Electrolysis Cell for Biohydrogen Production

View through CrossRef
Abstract Hydrogen, a source of renewable energy, unfortunately relies largely on fossil fuel technologies for its production. However, recent studies have shown that microbial technologies could be used to facilitate green hydrogen production. Based on these findings, this work primarily focused on utilizing farm soil, wastewater, anaerobic sludge and cow dung for the production of green hydrogen. A double chambered Microbial Electrolysis Cell (MEC) was coupled with a single chambered Microbial Fuel Cell (MFC) for this work. In this experiment, the fuel cell produced an average potential difference of 118.9 ± 0.001 mV over a period of 312 hours (13 days). The electrolysis cell also produced an average potential difference of 56.8 ± 0.003 mV over the same period of time. The two chambers of the MEC which facilitated the electrolysis process were separated by a locally made Proton Exchange Membrane. Hydrogen gas was produced at an average rate of about 6.9 ± 0.012 mL/day with the highest being 65.5 ± 0.012 mL on day 9. Also, an average current of 0.22 ± 0.006 μA flowed through the entire system and the total amount of hydrogen gas produced at the end of the experiment was approximately 96.8 ± 0.012 mL . Based on this work, it is evident that green hydrogen can be produced by means of coupling microbial electrolysis cells with microbial fuel cells and utilizing farm soil, wastewater, anaerobic sludge and cow dung.
Title: Microbial Fuel Cell coupled Microbial Electrolysis Cell for Biohydrogen Production
Description:
Abstract Hydrogen, a source of renewable energy, unfortunately relies largely on fossil fuel technologies for its production.
However, recent studies have shown that microbial technologies could be used to facilitate green hydrogen production.
Based on these findings, this work primarily focused on utilizing farm soil, wastewater, anaerobic sludge and cow dung for the production of green hydrogen.
A double chambered Microbial Electrolysis Cell (MEC) was coupled with a single chambered Microbial Fuel Cell (MFC) for this work.
In this experiment, the fuel cell produced an average potential difference of 118.
9 ± 0.
001 mV over a period of 312 hours (13 days).
The electrolysis cell also produced an average potential difference of 56.
8 ± 0.
003 mV over the same period of time.
The two chambers of the MEC which facilitated the electrolysis process were separated by a locally made Proton Exchange Membrane.
Hydrogen gas was produced at an average rate of about 6.
9 ± 0.
012 mL/day with the highest being 65.
5 ± 0.
012 mL on day 9.
Also, an average current of 0.
22 ± 0.
006 μA flowed through the entire system and the total amount of hydrogen gas produced at the end of the experiment was approximately 96.
8 ± 0.
012 mL .
Based on this work, it is evident that green hydrogen can be produced by means of coupling microbial electrolysis cells with microbial fuel cells and utilizing farm soil, wastewater, anaerobic sludge and cow dung.

Related Results

Biohydrogen Production from Potato Waste Using Dark Fermentation
Biohydrogen Production from Potato Waste Using Dark Fermentation
The excessive use of fossil fuels as the primary energy source has resulted in significant environmental and economic challenges, including greenhouse gas emissions and the depleti...
Analyzing the Research Trends in Biohydrogen Production Strategy: A Longitudinal Techno‐Historical Study
Analyzing the Research Trends in Biohydrogen Production Strategy: A Longitudinal Techno‐Historical Study
ABSTRACT The constantly rising global energy demand creates a necessity for new and sustainable renewable fuels to address related issues with greenhouse gas rele...
Biohydrogen Production: A Review of Current Trends and Future Prospects
Biohydrogen Production: A Review of Current Trends and Future Prospects
Abstract Growing concerns regarding climate change and fossil fuel depletion have spurred the development of clean and sustainable energy sources. Biohydrogen, a ...
Praseodymium Doped Ceria as Nickel-Free Fuel Electrode Material for Solid Oxide Electrolysis Cells
Praseodymium Doped Ceria as Nickel-Free Fuel Electrode Material for Solid Oxide Electrolysis Cells
Solid Oxide Electrolysis Cells (SOECs) play a key role in power-to-gas applications as a relevant electrochemical conversion device for addressing the global energy crisis. It uses...
Analisis Perbandingan Fuel Consumtption Pada Pesawat boeing B737-800 Rute CGK-DMK dan CGK-AMQ
Analisis Perbandingan Fuel Consumtption Pada Pesawat boeing B737-800 Rute CGK-DMK dan CGK-AMQ
Fuel consumption merupakan perhitungan konsumsi bahan bakaryang digunakan pesawat udara melalui dua engine, perhitungan ini akan mengetahui banyaknya fuel yang digunakan oleh pesaw...

Back to Top