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The Practical Implementation of Microbial Fuel Cell Technology

The Practical Implementation of Microbial Fuel Cell Technology
The Practical Implementation of Microbial Fuel Cell Technology

New green technologies are emerging in response to decades of damaging human activity. Among those are microbial fuel cells (MFCs), electric transducers that transform wet organic matter into electricity via the electroactive respiration of anaerobic microorganisms. Over the past two decades, research into MFCs has drastically improved performance, both in terms of power and treatment efficiency. To demonstrate the suitability of MFCs for incorporation into a wider market, there needs to be examples of practical implementation. This chapter highlights the potential by showing how the technology can be used in meaningful roles. The direct output can be harnessed both as a sensing mechanism and to power applications such as LEDs. Energy harvesting electronics can be employed that enable MFCs to energise more energy-intensive applications such as air fresheners, smoke alarms, transmitters, and charging mobile phones. After the lab-based examples, various field trials are discussed such as the deployment of MFCs in wastewater treatment plants. Finally, details are provided of a successful prototype MFC urinal that could one day be used in developing countries. The examples showcased in this chapter hopefully go some way to demonstrating that the practical implementation of MFCs into everyday life might not be that far away.

Bioelectrochemistry, Bioenergy, Energy harvesting, Microbial fuel cell, Sustainability
357-380
Elsevier Inc.
Ieropoulos, I.
6c580270-3e08-430a-9f49-7fbe869daf13
Winfield, J.
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Gajda, I.
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Walter, A.
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Papaharalabos, G.
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Jimenez, I. M.
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Pasternak, G.
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You, J.
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Tremouli, A.
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Stinchcombe, A.
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Forbes, S.
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Greenman, J.
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Scott, Keith
Hao Yu, Eileen
Ieropoulos, I.
6c580270-3e08-430a-9f49-7fbe869daf13
Winfield, J.
e81f4fad-1433-4c6a-9723-24a14f172896
Gajda, I.
943dd6bd-524b-4c7b-b794-dec5ee8014b7
Walter, A.
0ab24cb8-8463-44ed-8579-4b3576ad81d9
Papaharalabos, G.
39e5655a-6ce5-45f8-ac06-aaeb0a81d4f3
Jimenez, I. M.
6b2bdcae-9b50-4167-99f1-133793b2ce7c
Pasternak, G.
fd3857b4-1e43-4fa7-aab8-0162c02b2c1b
You, J.
1442df08-0ea4-4134-b6be-6b773b05f58d
Tremouli, A.
abf22981-9600-437c-9e33-70be45061b58
Stinchcombe, A.
f215f495-0b45-4233-9e5f-828fd6989e6b
Forbes, S.
38cf358a-399a-4dba-a8eb-8928883b09db
Greenman, J.
eb3d9b82-7cac-4442-9301-f34884ae4a16
Scott, Keith
Hao Yu, Eileen

Ieropoulos, I., Winfield, J., Gajda, I., Walter, A., Papaharalabos, G., Jimenez, I. M., Pasternak, G., You, J., Tremouli, A., Stinchcombe, A., Forbes, S. and Greenman, J. (2016) The Practical Implementation of Microbial Fuel Cell Technology. In, Scott, Keith and Hao Yu, Eileen (eds.) Microbial Electrochemical and Fuel Cells: Fundamentals and Applications. Elsevier Inc., pp. 357-380. (doi:10.1016/B978-1-78242-375-1.00012-5).

Record type: Book Section

Abstract

New green technologies are emerging in response to decades of damaging human activity. Among those are microbial fuel cells (MFCs), electric transducers that transform wet organic matter into electricity via the electroactive respiration of anaerobic microorganisms. Over the past two decades, research into MFCs has drastically improved performance, both in terms of power and treatment efficiency. To demonstrate the suitability of MFCs for incorporation into a wider market, there needs to be examples of practical implementation. This chapter highlights the potential by showing how the technology can be used in meaningful roles. The direct output can be harnessed both as a sensing mechanism and to power applications such as LEDs. Energy harvesting electronics can be employed that enable MFCs to energise more energy-intensive applications such as air fresheners, smoke alarms, transmitters, and charging mobile phones. After the lab-based examples, various field trials are discussed such as the deployment of MFCs in wastewater treatment plants. Finally, details are provided of a successful prototype MFC urinal that could one day be used in developing countries. The examples showcased in this chapter hopefully go some way to demonstrating that the practical implementation of MFCs into everyday life might not be that far away.

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More information

Published date: 2016
Additional Information: Publisher Copyright: © 2016 Elsevier Ltd. All rights reserved. Copyright: Copyright 2020 Elsevier B.V., All rights reserved.
Keywords: Bioelectrochemistry, Bioenergy, Energy harvesting, Microbial fuel cell, Sustainability

Identifiers

Local EPrints ID: 454013
URI: http://eprints.soton.ac.uk/id/eprint/454013
PURE UUID: 7601cb2e-cc17-42f4-a29f-5d96981de0ac
ORCID for I. Ieropoulos: ORCID iD orcid.org/0000-0002-9641-5504

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Date deposited: 27 Jan 2022 18:12
Last modified: 06 Jun 2024 02:12

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Contributors

Author: I. Ieropoulos ORCID iD
Author: J. Winfield
Author: I. Gajda
Author: A. Walter
Author: G. Papaharalabos
Author: I. M. Jimenez
Author: G. Pasternak
Author: J. You
Author: A. Tremouli
Author: A. Stinchcombe
Author: S. Forbes
Author: J. Greenman
Editor: Keith Scott
Editor: Eileen Hao Yu

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