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By generating electricity from microbially catalysed anodic oxidation processes, the greatest potential lies in the use of wastewater as a fuel, which allows wastewater treatment and energy recovery to be combined. A recent development has expanded the scope of bioelectrochemical systems from power generation and wastewater treatment to an increasing number of applications such as bioelectrochemically driven desalination and microbial electrosynthesis.

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Representative microbial electrochemical system — matched on the paper’s system type only, not its reactor or geometry.

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Abstract

By generating electricity from microbially catalysed anodic oxidation processes, the greatest potential lies in the use of wastewater as a fuel, which allows wastewater treatment and energy recovery to be combined. A recent development has expanded the scope of bioelectrochemical systems from power generation and wastewater treatment to an increasing number of applications such as bioelectrochemically driven desalination and microbial electrosynthesis. This chapter provides an overview of microbial bioelectrochemical systems, their fundamentals and potential applications.

Keywords

Microbial fuel cellDesalinationWastewaterScope (computer science)Sewage treatmentBiochemical engineering

Identifiers

Journal
Chemical Processes for a Sustainable Future
Year
2014