Potential for wastewater treatment systems based on microbial fuel cells and biological hydrogen production

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2 Citations (Scopus)

Abstract

It is possible to simultaneously accomplish wastewater treatment and generate electricity from organic matter using bacteria as a biocatalyst with microbial fuel cells (MFC)-based technologies. In systems that have been used recently, 10-50 mw/sq m was generated using domestic wastewater while simultaneously achieving wastewater treatment (80% removal of the biochemical oxygen demand of the wastewater). The maximum achievable level in MFC was on the order of 1000 mw/sq m. Although this power level appeared low, such levels are sufficient to make energy recovery from wastewater economically feasible in the near future due to the high surface area densities currently used in some wastewater treatment processes. This is an abstract of a paper presented at the 228th ACS National Meeting (Philadelphia, PA 8/22-26/2004).

Original languageEnglish (US)
JournalACS National Meeting Book of Abstracts
Volume228
Issue number1
StatePublished - Jan 1 2004
EventAbstracts of Papers - 228th ACS National Meeting - Philadelphia, PA, United States
Duration: Aug 22 2004Aug 26 2004

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Microbial fuel cells
Hydrogen production
Wastewater treatment
Wastewater
Biocatalysts
Biochemical oxygen demand
Biological materials
Bacteria
Electricity
Recovery
Enzymes

All Science Journal Classification (ASJC) codes

  • Chemistry(all)
  • Chemical Engineering(all)

Cite this

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title = "Potential for wastewater treatment systems based on microbial fuel cells and biological hydrogen production",
abstract = "It is possible to simultaneously accomplish wastewater treatment and generate electricity from organic matter using bacteria as a biocatalyst with microbial fuel cells (MFC)-based technologies. In systems that have been used recently, 10-50 mw/sq m was generated using domestic wastewater while simultaneously achieving wastewater treatment (80{\%} removal of the biochemical oxygen demand of the wastewater). The maximum achievable level in MFC was on the order of 1000 mw/sq m. Although this power level appeared low, such levels are sufficient to make energy recovery from wastewater economically feasible in the near future due to the high surface area densities currently used in some wastewater treatment processes. This is an abstract of a paper presented at the 228th ACS National Meeting (Philadelphia, PA 8/22-26/2004).",
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N2 - It is possible to simultaneously accomplish wastewater treatment and generate electricity from organic matter using bacteria as a biocatalyst with microbial fuel cells (MFC)-based technologies. In systems that have been used recently, 10-50 mw/sq m was generated using domestic wastewater while simultaneously achieving wastewater treatment (80% removal of the biochemical oxygen demand of the wastewater). The maximum achievable level in MFC was on the order of 1000 mw/sq m. Although this power level appeared low, such levels are sufficient to make energy recovery from wastewater economically feasible in the near future due to the high surface area densities currently used in some wastewater treatment processes. This is an abstract of a paper presented at the 228th ACS National Meeting (Philadelphia, PA 8/22-26/2004).

AB - It is possible to simultaneously accomplish wastewater treatment and generate electricity from organic matter using bacteria as a biocatalyst with microbial fuel cells (MFC)-based technologies. In systems that have been used recently, 10-50 mw/sq m was generated using domestic wastewater while simultaneously achieving wastewater treatment (80% removal of the biochemical oxygen demand of the wastewater). The maximum achievable level in MFC was on the order of 1000 mw/sq m. Although this power level appeared low, such levels are sufficient to make energy recovery from wastewater economically feasible in the near future due to the high surface area densities currently used in some wastewater treatment processes. This is an abstract of a paper presented at the 228th ACS National Meeting (Philadelphia, PA 8/22-26/2004).

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