Adaptive ranking of specific tree species for targeted green infrastructure intervention in response to urban hazards

Green infrastructure (GI), with its multifarious benefits, can effectively address urban hazards and enhance urban resilience and sustainability. While traditional GI planning studies incorporate its multifunctionality, they are often limited to identifying prioritized locations for GI intervention without exploring how to respond to the local specific demands. In this study, using a highly urbanized city, Zhengzhou as a case, we first spatially identified urban hazards in three aspects, including urban flood susceptibility, urban heat environment, and air pollution, utilizing machine learning, remote sensing retrieval. Subsequently, we employed the i-Tree Eco model to quantify the effectiveness of potential tree species in unitary functional units in addressing these urban hazards. An adaptive ranking approach was then proposed to match the effectiveness of tree species with local demands for addressing urban hazards. Our results indicate that the inner city area, as well as the northwest should be prioritized for GI interventions. Urban hazards exhibit significant spatial heterogeneity and different tree species also have specific advantages, highlighting the importance of adaptive decision-making. The study area is divided into three zones, and we suggest targeting urban hazards with the most effective GI intervention and maximizing carbon sequestration potential in areas without pronounced urban hazards. The developed framework can serve as guidance for scientific decision-making in urban greening projects. • An adaptive ranking approach is proposed to match the effectiveness of tree species with local demands. • Different tree species exhibit specific advantages, highlighting the importance of adaptive decision-making. • Urban hazards can be responded by placing the right trees in the right locations. • Carbon sequestration potential should be maximized in areas without pronounced urban hazards.

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Publication Details

Journal
Urban forestry & urban greening
Published
2025-03-15
DOI
https://doi.org/10.1016/j.ufug.2025.128776
Citations
8
Primary Topic
Urban Green Space and Health
Type
article
Field-Weighted Citation Impact
9.60

Funders

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article

Adaptive ranking of specific tree species for targeted green infrastructure intervention in response to urban hazards

Xinyu Dong, Yanmei Ye, Dagmar Haase, Runjia Yang et al.
8 citations
Urban forestry & urban greening
Urban Green Space and Health
9.60
article

Adaptive ranking of specific tree species for targeted green infrastructure intervention in response to urban hazards

Xinyu Dong, Yanmei Ye, Dagmar Haase, Runjia Yang, Dan Su, Angela Lausch, Shengao Yi
article en
8 citations

Abstract

Green infrastructure (GI), with its multifarious benefits, can effectively address urban hazards and enhance urban resilience and sustainability. While traditional GI planning studies incorporate its multifunctionality, they are often limited to identifying prioritized locations for GI intervention without exploring how to respond to the local specific demands. In this study, using a highly urbanized city, Zhengzhou as a case, we first spatially identified urban hazards in three aspects, including urban flood susceptibility, urban heat environment, and air pollution, utilizing machine learning, remote sensing retrieval. Subsequently, we employed the i-Tree Eco model to quantify the effectiveness of potential tree species in unitary functional units in addressing these urban hazards. An adaptive ranking approach was then proposed to match the effectiveness of tree species with local demands for addressing urban hazards. Our results indicate that the inner city area, as well as the northwest should be prioritized for GI interventions. Urban hazards exhibit significant spatial heterogeneity and different tree species also have specific advantages, highlighting the importance of adaptive decision-making. The study area is divided into three zones, and we suggest targeting urban hazards with the most effective GI intervention and maximizing carbon sequestration potential in areas without pronounced urban hazards. The developed framework can serve as guidance for scientific decision-making in urban greening projects. • An adaptive ranking approach is proposed to match the effectiveness of tree species with local demands. • Different tree species exhibit specific advantages, highlighting the importance of adaptive decision-making. • Urban hazards can be responded by placing the right trees in the right locations. • Carbon sequestration potential should be maximized in areas without pronounced urban hazards.

Urban forestry & urban greeningVol. 107
University City Science Center (US), Helmholtz Centre for Environmental Research (DE), Humboldt-Universität zu Berlin (DE), GeoInformation (United Kingdom) (GB), Martin Luther University Halle-Wittenberg (DE), Zhejiang University (CN), University of Pennsylvania (US)
National Natural Science Foundation of China, National Office for Philosophy and Social Sciences
Sustainable cities and communities
Openalex Percentile: Top 2%
Urban Green Space and Health
9.60
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