| Photos and Videos of Microbial Fuel Cells (MFCs) and the BEAMR systems researched in the Logan lab (updated 4-22-2005) | |
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This is the bio-electochemically assisted microbial reactor (BEAMR) demonstrating the feasibility of generating hydrogen from any biodegradable organic matter. See the publication by Liu, Grot and Logan (2005, in press) for more information |
| Click here for video of a MFC that runs a small fan | Click on the link to the left to view a video of a new microbial fuel cell that we built that is shown powering a small fan. |
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This is a 28-ml microbial fuel cell, that is operated in batch mode, is being used to examine a variety of factors that affect power generation. See publications by Liu and Logan (2004), and Liu et al. (2004, in press) |
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This flat plate microbial fuel cell, that operates in continuous flow mode, has a proton exchange membrane sandwiched between two carbon paper electrodes. Channels are drilled to that the flow follows a serpentine path through the system. See paper by Min & Logan (2004). |
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This is a conventional two-chamber microbial fuel cell. In this setup, both chambers are gas sparged: one with nitrogen to maintain anaerobic conditions in the chamber where the bacteria grow (anode); the other with air to provide oxygen in solution (cathode). |
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Same as the above cell, except the anode chamber is filled with a wastewater solution. |
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This is the Single Chamber Microbial Fuel Cell (SCMFC) described in our ES&T paper (Liu et al. 2004, ES&T). Here is the SCMFC is empty-- note the central cathode tube running down the center. |
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Same as above, but filled with wastewater. |
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A data logging multimeter is used to monitor voltage in the circuit containing a resistor. From the voltage and resistor information, we can calculate total power output by the system. |