Electricity production with living plants on a green roof: environmental performance of the plant-microbial fuel cell

Several renewable and (claimed) sustainable energy sources have been introduced into the market during the last century in an attempt to battle pollution from fossil fuels. Especially biomass energy technologies have been under debate for their sustainability. A new biomass energy technology was int...

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Published in:	Biofuels, bioproducts and biorefining Vol. 7; no. 1; pp. 52 - 64
Main Authors:	Helder, Marjolein, Chen, Wei-Shan, van der Harst, Eugenie J.M., Strik, David P.B.T.B.
Format:	Journal Article
Language:	English
Published:	Chichester, UK John Wiley & Sons, Ltd 01-01-2013
Subjects:	Anode material Anodes Bio-electricity production and supply Biochemical fuel cells Bioelectric phenomena Biomass Biomass energy technologies Biomass productions Co-products Commerce Copper wires Current collector design Electric power generation Electricity Electricity production Electrophysiology Energy technologies Energy technology Environmental impact Environmental management Environmental performance Fossil fuels Gold coatings Gold wire Granular activated carbons Green roof Life cycle Life cycle assessment Life Cycle Assessment (LCA) Life cycle engineering Markets Microbial fuel cells plant-microbial fuel cell Power out put Power plants Roofs Sustainable energy sources Technology Wire
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Abstract	Several renewable and (claimed) sustainable energy sources have been introduced into the market during the last century in an attempt to battle pollution from fossil fuels. Especially biomass energy technologies have been under debate for their sustainability. A new biomass energy technology was introduced in 2008: the plant‐microbial fuel cell (P‐MFC). In this system, electricity can be generated with living plants and thus bioelectricity and biomass production can be combined on the same surface. A green roof producing electricity with a P‐MFC could be an interesting combination. P‐MFC technology is nearing implementation in the market and therefore we assessed the environmental performance of the system with an early stage life cycle assessment (LCA). The environmental performance of the P‐MFC is currently worse than that of conventional electricity production technologies. This is mainly due to the limited power output of the P‐MFC and the materials presently used in the P‐MFC. Granular activated carbon (anode material), gold wires (current collectors), and Teflon‐coated copper wires (connecting anode and cathode) have the largest impact on environmental performance. Use of these materials needs to be reduced or avoided and alternatives need to be sought. Increasing power output and deriving co‐products from the P‐MFC will increase environmental performance of the P‐MFC. At this stage it is too early to compare the P‐MFC with other (renewable) energy technologies since the P‐MFC is still under development. © 2013 Society of Chemical Industry and John Wiley & Sons, Ltd
AbstractList	Several renewable and (claimed) sustainable energy sources have been introduced into the market during the last century in an attempt to battle pollution from fossil fuels. Especially biomass energy technologies have been under debate for their sustainability. A new biomass energy technology was introduced in 2008: the plant-microbial fuel cell (P-MFC). In this system, electricity can be generated with living plants and thus bioelectricity and biomass production can be combined on the same surface. A green roof producing electricity with a P-MFC could be an interesting combination. P-MFC technology is nearing implementation in the market and therefore we assessed the environmental performance of the system with an early stage life cycle assessment (LCA). The environmental performance of the P-MFC is currently worse than that of conventional electricity production technologies. This is mainly due to the limited power output of the P-MFC and the materials presently used in the P-MFC. Granular activated carbon (anode material), gold wires (current collectors), and Teflon-coated copper wires (connecting anode and cathode) have the largest impact on environmental performance. Use of these materials needs to be reduced or avoided and alternatives need to be sought. Increasing power output and deriving co-products from the P-MFC will increase environmental performance of the P-MFC. At this stage it is too early to compare the P-MFC with other (renewable) energy technologies since the P-MFC is still under development. Several renewable and (claimed) sustainable energy sources have been introduced into the market during the last century in an attempt to battle pollution from fossil fuels. Especially biomass energy technologies have been under debate for their sustainability. A new biomass energy technology was introduced in 2008: the plant‐microbial fuel cell (P‐MFC). In this system, electricity can be generated with living plants and thus bioelectricity and biomass production can be combined on the same surface. A green roof producing electricity with a P‐MFC could be an interesting combination. P‐MFC technology is nearing implementation in the market and therefore we assessed the environmental performance of the system with an early stage life cycle assessment (LCA). The environmental performance of the P‐MFC is currently worse than that of conventional electricity production technologies. This is mainly due to the limited power output of the P‐MFC and the materials presently used in the P‐MFC. Granular activated carbon (anode material), gold wires (current collectors), and Teflon‐coated copper wires (connecting anode and cathode) have the largest impact on environmental performance. Use of these materials needs to be reduced or avoided and alternatives need to be sought. Increasing power output and deriving co‐products from the P‐MFC will increase environmental performance of the P‐MFC. At this stage it is too early to compare the P‐MFC with other (renewable) energy technologies since the P‐MFC is still under development. © 2013 Society of Chemical Industry and John Wiley & Sons, Ltd Several renewable and (claimed) sustainable energy sources have been introduced into the market the during the last centuries in an attempt to battle pollution from fossil fuels. Especially biomass energy technologies have been under debate for their sustainability. A new biomass energy technology was introduced in 2008: the Plant-Microbial Fuel Cell (PMFC). In this system electricity can be generated with living plants and thus bioelectricity and biomass production can be combined on the same surface. A green roof producing electricity with a P-MFC could be an interesting combination. P-MFC technology is nearing implementation in the market and therefore we assessed the environmental performance of the system with an early stage Life Cycle Assessment (LCA). The environmental performance of the P-MFC is currently worse than of conventional electricity production technologies. This is mainly due to the limited power output of the P-MFC and the materials presently used in the P-MFC. Granular activated carbon (anode material), goldwires (current collectors) and Teflon coated copper wires (connecting anode and cathode) have the largest impact on the environmental performance. Use of these materials needs to be reduced or avoided and alternatives need to be sought. Increasing power output and deriving co-products from the P-MFC will increase environmental performance of the P-MFC. At this stage it is too early to compare the PMFC with other (renewable) energy technologies since the P-MFC is still under development. Several renewable and (claimed) sustainable energy sources have been introduced into the market during the last century in an attempt to battle pollution from fossil fuels. Especially biomass energy technologies have been under debate for their sustainability. A new biomass energy technology was introduced in 2008: the plant‐microbial fuel cell (P‐ MFC ). In this system, electricity can be generated with living plants and thus bioelectricity and biomass production can be combined on the same surface. A green roof producing electricity with a P‐ MFC could be an interesting combination. P‐ MFC technology is nearing implementation in the market and therefore we assessed the environmental performance of the system with an early stage life cycle assessment ( LCA ). The environmental performance of the P‐ MFC is currently worse than that of conventional electricity production technologies. This is mainly due to the limited power output of the P‐ MFC and the materials presently used in the P‐ MFC . Granular activated carbon (anode material), gold wires (current collectors), and Teflon‐coated copper wires (connecting anode and cathode) have the largest impact on environmental performance. Use of these materials needs to be reduced or avoided and alternatives need to be sought. Increasing power output and deriving co‐products from the P‐ MFC will increase environmental performance of the P‐ MFC . At this stage it is too early to compare the P‐ MFC with other (renewable) energy technologies since the P‐ MFC is still under development. © 2013 Society of Chemical Industry and John Wiley & Sons, Ltd
Author	Strik, David P.B.T.B. van der Harst, Eugenie J.M. Helder, Marjolein Chen, Wei-Shan
Author_xml	– sequence: 1 givenname: Marjolein surname: Helder fullname: Helder, Marjolein organization: Wageningen University, Wageningen, the Netherlands – sequence: 2 givenname: Wei-Shan surname: Chen fullname: Chen, Wei-Shan organization: Wageningen University, Wageningen, the Netherlands – sequence: 3 givenname: Eugenie J.M. surname: van der Harst fullname: van der Harst, Eugenie J.M. organization: Wageningen University, Wageningen, the Netherlands – sequence: 4 givenname: David P.B.T.B. surname: Strik fullname: Strik, David P.B.T.B. email: Correspondence to: D. Strik, Sub-department Environmental Technology, Wageningen University, Wageningen, the Netherlands. , david.strik@wur.nl organization: Wageningen University, Wageningen, the Netherlands
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SubjectTerms	Anode material Anodes Bio-electricity production and supply Biochemical fuel cells Bioelectric phenomena Biomass Biomass energy technologies Biomass productions Co-products Commerce Copper wires Current collector design Electric power generation Electricity Electricity production Electrophysiology Energy technologies Energy technology Environmental impact Environmental management Environmental performance Fossil fuels Gold coatings Gold wire Granular activated carbons Green roof Life cycle Life cycle assessment Life Cycle Assessment (LCA) Life cycle engineering Markets Microbial fuel cells plant-microbial fuel cell Power out put Power plants Roofs Sustainable energy sources Technology Wire
Title	Electricity production with living plants on a green roof: environmental performance of the plant-microbial fuel cell
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