Raw Experimental Data for Dual-Cell Membrane-Less Microbial Fuel Cell Reactor Operated with Organic Sludge for Emergency Lighting Applications

Published: 12 June 2026| Version 1 | DOI: 10.17632/37yxcbbms3.1
Contributor:
Daffa Muhammad

Description

This dataset contains the raw and processed experimental data supporting the manuscript entitled "Long-Term Performance and Operational Stability of a Dual-Cell Membrane-Less Microbial Fuel Cell Reactor for Emergency Lighting Applications". The dataset includes voltage measurements, current measurements, power density calculations, pH monitoring data, and operational records collected during 714 h of reactor operation.

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Steps to reproduce

This dataset supports the manuscript: "Long-Term Performance and Operational Stability of a Dual-Cell Membrane-Less Microbial Fuel Cell Reactor for Emergency Lighting Applications" The dataset contains raw and processed experimental data collected during the operation of a dual-cell membrane-less microbial fuel cell reactor utilizing organic sludge as substrate. Files Included Raw_Voltage_Data.xlsx Time (h) Voltage (V) Raw_Current_Data.xlsx Time (h) Current (mA) Power_Density_Data.xlsx Time (h) Power Density (mW/m²) pH_Data.xlsx Sampling Time pH Experimental Overview A dual-cell membrane-less microbial fuel cell reactor was operated continuously using organic sludge as substrate. The two cells were connected in series and used to power LED lighting. Performance monitoring was conducted throughout approximately 714 hours of operation. Data Processing Power density values were calculated from measured voltage and current values using the projected cathode surface area. Step to Reproduce Construct a dual-cell membrane-less microbial fuel cell reactor using the configuration described in the associated manuscript. Fill the reactor chambers with organic sludge substrate. Connect the two cells in series. Record voltage and current outputs periodically during reactor operation. Calculate power density using measured electrical outputs and cathode surface area. Monitor pH throughout the operational period. Compare the resulting values with the data contained in this repository.

Institutions

Categories

Electrochemistry, Bioreactor Design

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