Climate adaptation in cities: What trees are suitable for urban heat management?

•We examine the effect of hardiness zone shifts on tree distribution in the US.•All Southeastern US MSAs in our study lost tree species over time.•Continuing the hardiness zone shift change pattern results in greater species loss.•Of the projected tree species lost, deciduous outnumbered coniferous...

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Published inLandscape and urban planning Vol. 153; pp. 74 - 82
Main Authors Lanza, Kevin, Stone, Brian
Format Journal Article
LanguageEnglish
Published Elsevier B.V 01.09.2016
Subjects
Online AccessGet full text
ISSN0169-2046
1872-6062
DOI10.1016/j.landurbplan.2015.12.002

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Abstract •We examine the effect of hardiness zone shifts on tree distribution in the US.•All Southeastern US MSAs in our study lost tree species over time.•Continuing the hardiness zone shift change pattern results in greater species loss.•Of the projected tree species lost, deciduous outnumbered coniferous 3 to 1. Vegetative enhancement in the form of tree planting has been found to be a highly effective strategy for cooling urban environments, yet as cities continue to warm, the suitability of urban environments for some tree species is changing with shifting hardiness zones. Trees are assigned to hardiness zones, which are based on the average annual minimum temperature that a species can thrive. In recent decades, human induced global warming has shifted the location of hardiness zones across the United States. Our study examines the historical range of ∼200 common US tree species and how climate change-induced shifts in hardiness zones are affecting historical tree ranges in 20 highly populated metropolitan statistical areas (MSAs) with high rates of urban heat island growth over time. MSAs are areas with at least one urban area of 50,000 or more people and adjoining territory that has a high degree of social and economic integration with the core. We found 6 of the 20 MSAs lost tree species, with the Atlanta (13.51%) and Washington DC (3.61%) MSAs suffering the greatest losses. If historical rates of hardiness zone migration continue, a simple projection exhibits >6% average tree species loss across all MSAs in the study. As hardiness zones continue to migrate northward with climate change, heat island mitigation and other environmental management strategies employing green infrastructure must identify tree species that are likely to remain well adapted to urban climates many years into the future.
AbstractList Vegetative enhancement in the form of tree planting has been found to be a highly effective strategy for cooling urban environments, yet as cities continue to warm, the suitability of urban environments for some tree species is changing with shifting hardiness zones. Trees are assigned to hardiness zones, which are based on the average annual minimum temperature that a species can thrive. In recent decades, human induced global warming has shifted the location of hardiness zones across the United States. Our study examines the historical range of ∼200 common US tree species and how climate change-induced shifts in hardiness zones are affecting historical tree ranges in 20 highly populated metropolitan statistical areas (MSAs) with high rates of urban heat island growth over time. MSAs are areas with at least one urban area of 50,000 or more people and adjoining territory that has a high degree of social and economic integration with the core. We found 6 of the 20 MSAs lost tree species, with the Atlanta (13.51%) and Washington DC (3.61%) MSAs suffering the greatest losses. If historical rates of hardiness zone migration continue, a simple projection exhibits >6% average tree species loss across all MSAs in the study. As hardiness zones continue to migrate northward with climate change, heat island mitigation and other environmental management strategies employing green infrastructure must identify tree species that are likely to remain well adapted to urban climates many years into the future.
•We examine the effect of hardiness zone shifts on tree distribution in the US.•All Southeastern US MSAs in our study lost tree species over time.•Continuing the hardiness zone shift change pattern results in greater species loss.•Of the projected tree species lost, deciduous outnumbered coniferous 3 to 1. Vegetative enhancement in the form of tree planting has been found to be a highly effective strategy for cooling urban environments, yet as cities continue to warm, the suitability of urban environments for some tree species is changing with shifting hardiness zones. Trees are assigned to hardiness zones, which are based on the average annual minimum temperature that a species can thrive. In recent decades, human induced global warming has shifted the location of hardiness zones across the United States. Our study examines the historical range of ∼200 common US tree species and how climate change-induced shifts in hardiness zones are affecting historical tree ranges in 20 highly populated metropolitan statistical areas (MSAs) with high rates of urban heat island growth over time. MSAs are areas with at least one urban area of 50,000 or more people and adjoining territory that has a high degree of social and economic integration with the core. We found 6 of the 20 MSAs lost tree species, with the Atlanta (13.51%) and Washington DC (3.61%) MSAs suffering the greatest losses. If historical rates of hardiness zone migration continue, a simple projection exhibits >6% average tree species loss across all MSAs in the study. As hardiness zones continue to migrate northward with climate change, heat island mitigation and other environmental management strategies employing green infrastructure must identify tree species that are likely to remain well adapted to urban climates many years into the future.
Vegetative enhancement in the form of tree planting has been found to be a highly effective strategy for cooling urban environments, yet as cities continue to warm, the suitability of urban environments for some tree species is changing with shifting hardiness zones. Trees are assigned to hardiness zones, which are based on the average annual minimum temperature that a species can thrive. In recent decades, human induced global warming has shifted the location of hardiness zones across the United States. Our study examines the historical range of 200 common US tree species and how climate change-induced shifts in hardiness zones are affecting historical tree ranges in 20 highly populated metropolitan statistical areas (MSAs) with high rates of urban heat island growth over time. MSAs are areas with at least one urban area of 50,000 or more people and adjoining territory that has a high degree of social and economic integration with the core. We found 6 of the 20 MSAs lost tree species, with the Atlanta (13.51%) and Washington DC (3.61%) MSAs suffering the greatest losses. If historical rates of hardiness zone migration continue, a simple projection exhibits >6% average tree species loss across all MSAs in the study. As hardiness zones continue to migrate northward with climate change, heat island mitigation and other environmental management strategies employing green infrastructure must identify tree species that are likely to remain well adapted to urban climates many years into the future.
Vegetative enhancement in the form of tree planting has been found to be a highly effective strategy for cooling urban environments, yet as cities continue to warm, the suitability of urban environments for some tree species is changing with shifting hardiness zones. Trees are assigned to hardiness zones, which are based on the average annual minimum temperature that a species can thrive. In recent decades, human induced global warming has shifted the location of hardiness zones across the United States. Our study examines the historical range of ∼200 common US tree species and how climate change-induced shifts in hardiness zones are affecting historical tree ranges in 20 highly populated metropolitan statistical areas (MSAs) with high rates of urban heat island growth over time. MSAs are areas with at least one urban area of 50,000 or more people and adjoining territory that has a high degree of social and economic integration with the core. We found 6 of the 20 MSAs lost tree species, with the Atlanta (13.51%) and Washington DC (3.61%) MSAs suffering the greatest losses. If historical rates of hardiness zone migration continue, a simple projection exhibits >6% average tree species loss across all MSAs in the study. As hardiness zones continue to migrate northward with climate change, heat island mitigation and other environmental management strategies employing green infrastructure must identify tree species that are likely to remain well adapted to urban climates many years into the future.
Author Stone, Brian
Lanza, Kevin
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Keywords Tree species distribution
Urban heat islands
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Heat adaptation strategy
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Snippet •We examine the effect of hardiness zone shifts on tree distribution in the US.•All Southeastern US MSAs in our study lost tree species over time.•Continuing...
Vegetative enhancement in the form of tree planting has been found to be a highly effective strategy for cooling urban environments, yet as cities continue to...
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SubjectTerms cities
Climate
Climate change
cooling
District of Columbia
Economics
environmental management
Georgia
global warming
Green aspects
green infrastructure
Hardiness zones
heat
Heat adaptation strategy
heat island
humans
people
planting
Strategy
temperature
Tree species distribution
Trees
Urban areas
Urban environments
Urban heat islands
Vegetation
Title Climate adaptation in cities: What trees are suitable for urban heat management?
URI https://dx.doi.org/10.1016/j.landurbplan.2015.12.002
https://www.proquest.com/docview/1808612104
https://www.proquest.com/docview/1817845277
https://www.proquest.com/docview/1825513923
Volume 153
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