Break‐even price and carbon emissions of carinata‐based sustainable aviation fuel production in the Southeastern United States
Abstract The production of biomass‐based sustainable aviation fuel (SAF) is gaining traction to reduce the carbon footprint of the aviation sector. We performed a techno‐economic analysis to estimate the break‐even price and life cycle carbon emissions of the SAF derived from carinata (Brassica cari...
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Format: | Article |
Language: | English |
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Wiley
2021-11-01
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Series: | GCB Bioenergy |
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Online Access: | https://doi.org/10.1111/gcbb.12888 |
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author | Asiful Alam Md Farhad Hossain Masum Puneet Dwivedi |
author_facet | Asiful Alam Md Farhad Hossain Masum Puneet Dwivedi |
author_sort | Asiful Alam |
collection | DOAJ |
description | Abstract The production of biomass‐based sustainable aviation fuel (SAF) is gaining traction to reduce the carbon footprint of the aviation sector. We performed a techno‐economic analysis to estimate the break‐even price and life cycle carbon emissions of the SAF derived from carinata (Brassica carinata) in the Southeastern United States. Carinata has the potential as a feedstock for SAF production in the selected region due to higher yield, low fertilizer use, co‐product generation (animal feed, propane, and naphtha), and compatibility with current farming practices. The system boundary started at the farm and ended when the SAF is delivered to an airport. Without co‐product credit or other subsidies such as Renewable Identification Number (RIN) credit, carinata‐based SAF was more expensive ($0.85 L−1 to $1.28 L−1) than conventional aviation fuel ($0.50 L−1). With co‐product credit only, the break‐even price ranged from $0.34 L−1 to $0.89 L−1. With both co‐product and RIN credits, the price ranged from ‐$0.12 to ‐$0.66 L−1. The total carbon emission was 918.67 g CO2e L−1 of carinata‐based SAF. This estimate provides 65% relative carbon savings compared with conventional aviation fuel (2618 g CO2e L−1). Sensitivity analysis suggested a 95% probability that relative carbon savings can range from 61% to 68%. Our study indicates that carinata‐based aviation fuel could significantly reduce carbon emissions of the aviation sector. However, current policy support mechanisms should be continued to support manufacturing and distribution in the Southeastern United States. |
first_indexed | 2024-12-21T03:00:44Z |
format | Article |
id | doaj.art-a0fa758811a94631bfc1f7ecd0c04646 |
institution | Directory Open Access Journal |
issn | 1757-1693 1757-1707 |
language | English |
last_indexed | 2024-12-21T03:00:44Z |
publishDate | 2021-11-01 |
publisher | Wiley |
record_format | Article |
series | GCB Bioenergy |
spelling | doaj.art-a0fa758811a94631bfc1f7ecd0c046462022-12-21T19:18:12ZengWileyGCB Bioenergy1757-16931757-17072021-11-0113111800181310.1111/gcbb.12888Break‐even price and carbon emissions of carinata‐based sustainable aviation fuel production in the Southeastern United StatesAsiful Alam0Md Farhad Hossain Masum1Puneet Dwivedi2Warnell School of Forestry and Natural Resources University of Georgia Athens Georgia USAWarnell School of Forestry and Natural Resources University of Georgia Athens Georgia USAWarnell School of Forestry and Natural Resources University of Georgia Athens Georgia USAAbstract The production of biomass‐based sustainable aviation fuel (SAF) is gaining traction to reduce the carbon footprint of the aviation sector. We performed a techno‐economic analysis to estimate the break‐even price and life cycle carbon emissions of the SAF derived from carinata (Brassica carinata) in the Southeastern United States. Carinata has the potential as a feedstock for SAF production in the selected region due to higher yield, low fertilizer use, co‐product generation (animal feed, propane, and naphtha), and compatibility with current farming practices. The system boundary started at the farm and ended when the SAF is delivered to an airport. Without co‐product credit or other subsidies such as Renewable Identification Number (RIN) credit, carinata‐based SAF was more expensive ($0.85 L−1 to $1.28 L−1) than conventional aviation fuel ($0.50 L−1). With co‐product credit only, the break‐even price ranged from $0.34 L−1 to $0.89 L−1. With both co‐product and RIN credits, the price ranged from ‐$0.12 to ‐$0.66 L−1. The total carbon emission was 918.67 g CO2e L−1 of carinata‐based SAF. This estimate provides 65% relative carbon savings compared with conventional aviation fuel (2618 g CO2e L−1). Sensitivity analysis suggested a 95% probability that relative carbon savings can range from 61% to 68%. Our study indicates that carinata‐based aviation fuel could significantly reduce carbon emissions of the aviation sector. However, current policy support mechanisms should be continued to support manufacturing and distribution in the Southeastern United States.https://doi.org/10.1111/gcbb.12888agricultureaviationbioenergyeconomic analysislife cycle assessmentsustainability |
spellingShingle | Asiful Alam Md Farhad Hossain Masum Puneet Dwivedi Break‐even price and carbon emissions of carinata‐based sustainable aviation fuel production in the Southeastern United States GCB Bioenergy agriculture aviation bioenergy economic analysis life cycle assessment sustainability |
title | Break‐even price and carbon emissions of carinata‐based sustainable aviation fuel production in the Southeastern United States |
title_full | Break‐even price and carbon emissions of carinata‐based sustainable aviation fuel production in the Southeastern United States |
title_fullStr | Break‐even price and carbon emissions of carinata‐based sustainable aviation fuel production in the Southeastern United States |
title_full_unstemmed | Break‐even price and carbon emissions of carinata‐based sustainable aviation fuel production in the Southeastern United States |
title_short | Break‐even price and carbon emissions of carinata‐based sustainable aviation fuel production in the Southeastern United States |
title_sort | break even price and carbon emissions of carinata based sustainable aviation fuel production in the southeastern united states |
topic | agriculture aviation bioenergy economic analysis life cycle assessment sustainability |
url | https://doi.org/10.1111/gcbb.12888 |
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