Hydrocarbon Bio-Jet Fuel from Bioconversion of Poplar Biomass: Life Cycle Assessment of Site-Specific Impacts

Hydrocarbon drop-in bio-jet fuels could help to reduce greenhouse gas emissions within the aviation sector. Large tracts of land will be required to grow biomass feedstock for this biofuel, and changes to the management of these lands could have substantial environmental impacts. This research uses...

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Main Authors: Erik Budsberg, Nathan Parker, Varaprasad Bandaru, Renata Bura, Rick Gustafson
Format: Article
Language:English
Published: MDPI AG 2022-03-01
Series:Forests
Subjects:
Online Access:https://www.mdpi.com/1999-4907/13/4/549
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author Erik Budsberg
Nathan Parker
Varaprasad Bandaru
Renata Bura
Rick Gustafson
author_facet Erik Budsberg
Nathan Parker
Varaprasad Bandaru
Renata Bura
Rick Gustafson
author_sort Erik Budsberg
collection DOAJ
description Hydrocarbon drop-in bio-jet fuels could help to reduce greenhouse gas emissions within the aviation sector. Large tracts of land will be required to grow biomass feedstock for this biofuel, and changes to the management of these lands could have substantial environmental impacts. This research uses spatial analysis and life cycle assessment methodologies to investigate potential environmental impacts associated with converting land to grow poplar trees for conversion to bio-jet fuel from different regions within the western United States. Results vary by region and are dependent on land availability, type of land converted, prior land management practices, and poplar growth yields. The conversion of intensively managed cropland to poplar production results in a decrease in fertilizer and a lower annual global warming potential (GWP) (Clarksburg CA region). Bringing unmanaged rangeland into production results in increases in fertilizers, chemical inputs, fuel use, and GWP (Jefferson OR region). Where poplar yields are predicted to be lower, more land is converted to growing poplar to meet feedstock demands (Hayden ID). An increased use of land leads to greater fuel use and GWP. Changes to land use and management practices will drive changes at the local level that need to be understood before developing a drop-in biofuels industry.
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spelling doaj.art-da81f869a1d3430da9545aed7f44e1662023-12-01T20:54:31ZengMDPI AGForests1999-49072022-03-0113454910.3390/f13040549Hydrocarbon Bio-Jet Fuel from Bioconversion of Poplar Biomass: Life Cycle Assessment of Site-Specific ImpactsErik Budsberg0Nathan Parker1Varaprasad Bandaru2Renata Bura3Rick Gustafson4Office of Sustainability, Eastern Washington University, Cheney, WA 99004, USASchool of Sustainability, College of Global Futures, Arizona State University, Tempe, AZ 85287, USADepartment of Geographical Sciences, University of Maryland, College Park, MD 20742, USASchool of Environmental and Forest Sciences, College of the Environment, University of Washington, Seattle, WA 98105, USASchool of Environmental and Forest Sciences, College of the Environment, University of Washington, Seattle, WA 98105, USAHydrocarbon drop-in bio-jet fuels could help to reduce greenhouse gas emissions within the aviation sector. Large tracts of land will be required to grow biomass feedstock for this biofuel, and changes to the management of these lands could have substantial environmental impacts. This research uses spatial analysis and life cycle assessment methodologies to investigate potential environmental impacts associated with converting land to grow poplar trees for conversion to bio-jet fuel from different regions within the western United States. Results vary by region and are dependent on land availability, type of land converted, prior land management practices, and poplar growth yields. The conversion of intensively managed cropland to poplar production results in a decrease in fertilizer and a lower annual global warming potential (GWP) (Clarksburg CA region). Bringing unmanaged rangeland into production results in increases in fertilizers, chemical inputs, fuel use, and GWP (Jefferson OR region). Where poplar yields are predicted to be lower, more land is converted to growing poplar to meet feedstock demands (Hayden ID). An increased use of land leads to greater fuel use and GWP. Changes to land use and management practices will drive changes at the local level that need to be understood before developing a drop-in biofuels industry.https://www.mdpi.com/1999-4907/13/4/549biofuelsdrop-in biofuelshydrocarbon biofuelslife cycle assessmentspatial analysisregional environmental impacts
spellingShingle Erik Budsberg
Nathan Parker
Varaprasad Bandaru
Renata Bura
Rick Gustafson
Hydrocarbon Bio-Jet Fuel from Bioconversion of Poplar Biomass: Life Cycle Assessment of Site-Specific Impacts
Forests
biofuels
drop-in biofuels
hydrocarbon biofuels
life cycle assessment
spatial analysis
regional environmental impacts
title Hydrocarbon Bio-Jet Fuel from Bioconversion of Poplar Biomass: Life Cycle Assessment of Site-Specific Impacts
title_full Hydrocarbon Bio-Jet Fuel from Bioconversion of Poplar Biomass: Life Cycle Assessment of Site-Specific Impacts
title_fullStr Hydrocarbon Bio-Jet Fuel from Bioconversion of Poplar Biomass: Life Cycle Assessment of Site-Specific Impacts
title_full_unstemmed Hydrocarbon Bio-Jet Fuel from Bioconversion of Poplar Biomass: Life Cycle Assessment of Site-Specific Impacts
title_short Hydrocarbon Bio-Jet Fuel from Bioconversion of Poplar Biomass: Life Cycle Assessment of Site-Specific Impacts
title_sort hydrocarbon bio jet fuel from bioconversion of poplar biomass life cycle assessment of site specific impacts
topic biofuels
drop-in biofuels
hydrocarbon biofuels
life cycle assessment
spatial analysis
regional environmental impacts
url https://www.mdpi.com/1999-4907/13/4/549
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