Canopy Temperature Reveals Disparities in Urban Tree Benefits

Abstract Urban trees are increasingly used by cities for cooling and climate adaptation. However, efforts to increase tree cover across cities have neglected to account for the trees' health and function, which are known to control their associated environmental benefits but have been difficult to assess at scales relevant for management. Here, we use remotely sensed, high resolution canopy temperature as a proxy for tree health and function and evaluate its relation to the built environment across Minneapolis‐St. Paul (MSP) using machine learning analyses. We develop a new index that incorporates information on urban trees' health and function, in addition to their presence. This index, when applied across MSP, suggests that canopy benefits may not be distributed equally even in neighborhoods with similar canopy cover. Furthermore, accounting for tree health and function can yield more effective and equitable benefits by guiding the location and magnitude of intervention for urban tree management.

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Publication Details

Journal
AGU Advances
Published
2025-02-01
DOI
https://doi.org/10.1029/2024av001438
Citations
1
Primary Topic
Urban Heat Island Mitigation
Type
article
Field-Weighted Citation Impact
0.80

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article

Canopy Temperature Reveals Disparities in Urban Tree Benefits

Xue Feng, Jean V. Wilkening
1 citations
AGU Advances
Urban Heat Island Mitigation
0.80
article

Canopy Temperature Reveals Disparities in Urban Tree Benefits

Xue Feng, Jean V. Wilkening
article en
1 citations

Abstract

Abstract Urban trees are increasingly used by cities for cooling and climate adaptation. However, efforts to increase tree cover across cities have neglected to account for the trees' health and function, which are known to control their associated environmental benefits but have been difficult to assess at scales relevant for management. Here, we use remotely sensed, high resolution canopy temperature as a proxy for tree health and function and evaluate its relation to the built environment across Minneapolis‐St. Paul (MSP) using machine learning analyses. We develop a new index that incorporates information on urban trees' health and function, in addition to their presence. This index, when applied across MSP, suggests that canopy benefits may not be distributed equally even in neighborhoods with similar canopy cover. Furthermore, accounting for tree health and function can yield more effective and equitable benefits by guiding the location and magnitude of intervention for urban tree management.

AGU AdvancesVol. 6(1)
University of Minnesota (US), Saint Anthony College of Nursing (US), Twin Cities Orthopedics (US)
National Science Foundation, University of Minnesota
Openalex Percentile: Top 33%
Urban Heat Island Mitigation
0.80
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