Climate Warming and United States Military Force Projection: Impacts of Increasing Temperatures on Forward Operability

This thesis assesses the potential strategic-level implications that global climate warming may have on the United States Department of Defense, particularly the United States Air Force, up to the year 2099. The Boeing C-17 Globemaster III, a critical strategic airlift platform utilized by the Unite...

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Main Author: Benton, Kaitlyn M
Other Authors: Leslie, Timothy
Format: Text
Language:English
Published: 2022
Subjects:
Online Access:http://hdl.handle.net/1920/13314
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spelling ftgeorgemason:oai:mars.gmu.edu:1920/13314 2023-07-23T04:14:52+02:00 Climate Warming and United States Military Force Projection: Impacts of Increasing Temperatures on Forward Operability Benton, Kaitlyn M Leslie, Timothy 2022-09-15 masters theses application/pdf http://hdl.handle.net/1920/13314 en eng http://hdl.handle.net/1920/13314 Copyright 2022 Kaitlyn M. Benton http://rightsstatements.org/vocab/InC/1.0 climate change military density altitude global warming aviation national security Text 2022 ftgeorgemason 2023-07-01T22:29:40Z This thesis assesses the potential strategic-level implications that global climate warming may have on the United States Department of Defense, particularly the United States Air Force, up to the year 2099. The Boeing C-17 Globemaster III, a critical strategic airlift platform utilized by the United States Air Force, serves as the case study aircraft. Performance degradation experienced by the C-17 is measured by the imposed reduction in maximum allowable takeoff weight under six thresholds. As regional temperatures rise, density altitude also increases, which reduces production and overall engine performance, requiring a decrease in aircraft takeoff weight. The impacts of climate warming on the C-17 are measured across the six terrestrial geographic combatant commands defined by the Department of Defense. USAFRICOM, USSOUTHCOM, and USINDOPACOM (not including Antarctica) contain the highest portion of geographic area that is subject to year-round payload reductions. USCENTCOM trails close behind. By the year 2099, nearly 70% of both USAFRICOM and USSOUTHCOM will require a 29.3% payload reduction year-round, and over 50% of both USINDOPACOM (not including Antarctica) and USCENTCOM will require a year-round 17.0% payload reduction. This performance degradation is expected to interfere with ongoing global conflicts that are of interest to the United States, hinder the United States’ commitment to providing reassurance to foreign allies through contingency responsiveness, and significantly reduce the efficiency by which the Department of Defense can execute actions in direct support of national security priorities. Text Antarc* Antarctica George Mason University: MARS
institution Open Polar
collection George Mason University: MARS
op_collection_id ftgeorgemason
language English
topic climate change
military
density altitude
global warming
aviation
national security
spellingShingle climate change
military
density altitude
global warming
aviation
national security
Benton, Kaitlyn M
Climate Warming and United States Military Force Projection: Impacts of Increasing Temperatures on Forward Operability
topic_facet climate change
military
density altitude
global warming
aviation
national security
description This thesis assesses the potential strategic-level implications that global climate warming may have on the United States Department of Defense, particularly the United States Air Force, up to the year 2099. The Boeing C-17 Globemaster III, a critical strategic airlift platform utilized by the United States Air Force, serves as the case study aircraft. Performance degradation experienced by the C-17 is measured by the imposed reduction in maximum allowable takeoff weight under six thresholds. As regional temperatures rise, density altitude also increases, which reduces production and overall engine performance, requiring a decrease in aircraft takeoff weight. The impacts of climate warming on the C-17 are measured across the six terrestrial geographic combatant commands defined by the Department of Defense. USAFRICOM, USSOUTHCOM, and USINDOPACOM (not including Antarctica) contain the highest portion of geographic area that is subject to year-round payload reductions. USCENTCOM trails close behind. By the year 2099, nearly 70% of both USAFRICOM and USSOUTHCOM will require a 29.3% payload reduction year-round, and over 50% of both USINDOPACOM (not including Antarctica) and USCENTCOM will require a year-round 17.0% payload reduction. This performance degradation is expected to interfere with ongoing global conflicts that are of interest to the United States, hinder the United States’ commitment to providing reassurance to foreign allies through contingency responsiveness, and significantly reduce the efficiency by which the Department of Defense can execute actions in direct support of national security priorities.
author2 Leslie, Timothy
format Text
author Benton, Kaitlyn M
author_facet Benton, Kaitlyn M
author_sort Benton, Kaitlyn M
title Climate Warming and United States Military Force Projection: Impacts of Increasing Temperatures on Forward Operability
title_short Climate Warming and United States Military Force Projection: Impacts of Increasing Temperatures on Forward Operability
title_full Climate Warming and United States Military Force Projection: Impacts of Increasing Temperatures on Forward Operability
title_fullStr Climate Warming and United States Military Force Projection: Impacts of Increasing Temperatures on Forward Operability
title_full_unstemmed Climate Warming and United States Military Force Projection: Impacts of Increasing Temperatures on Forward Operability
title_sort climate warming and united states military force projection: impacts of increasing temperatures on forward operability
publishDate 2022
url http://hdl.handle.net/1920/13314
genre Antarc*
Antarctica
genre_facet Antarc*
Antarctica
op_relation http://hdl.handle.net/1920/13314
op_rights Copyright 2022 Kaitlyn M. Benton
http://rightsstatements.org/vocab/InC/1.0
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