Cooling the land surface: Ecosystem health and water availability drive the landscape capacity to mitigate climate change

• We investigated land surface temperature dynamics in a complex landscape. • Machine learning model enabled to assess complex multivariable relationships. • Water features and ecosystem health alleviate the temperature extremes. • High resolution is necessary to disentangle local patterns and environmental drivers. • Satellite data help to prepare adaptive management to mitigate climate change threats. Land surface temperature (LST) is profoundly interlinked with the landscape state, settings and functioning, with the connections being very complex. Although the role of wetlands and (semi)natural habitats, in mitigating climate extremes is generally understood, the mechanisms explaining the thermal patterns in complex landscapes remain unclear. We address this knowledge gap, investigating a link between the dynamics of LST and characteristics of a diverse sandstone landscape, focusing on the role of water features and forest health in alleviating temperature extremes. For our study, we used a model example of a sandstone protected area in the north of the Czech Republic that underwent significant changes during the last decade due to a bark beetle infestation and a consequent forest die-off and wildfire. LST data were obtained from MODIS and Landsat 8 sensors in a cloud-based Google Earth Engine platform. Machine learning regression model enabled us to assess complex multivariable relationships and increase the LST spatial resolution. The results suggest the significant effect of both water availability and ecosystem health on LST, with vegetation indices, land cover and elevation being the main factors. The correlation of the satellite-based LST and in situ measured temperature depended on the canopy cover. The study indicates that in complex landscapes, LST data of high spatial and temporal resolution is necessary to disentangle local patterns and environmental drivers. Satellite data can serve as a reliable means to understand the mechanisms and prepare adaptive management measures to make the landscape more resistant to climate change related threats.

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Publication Details

Journal
Ecological Indicators
Published
2025-02-20
DOI
https://doi.org/10.1016/j.ecolind.2025.113265
Citations
4
Primary Topic
Urban Heat Island Mitigation
Type
article
Field-Weighted Citation Impact
3.20

Funders

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article

Cooling the land surface: Ecosystem health and water availability drive the landscape capacity to mitigate climate change

Jana Müllerová, Erik Šiffel
4 citations
Ecological Indicators
Urban Heat Island Mitigation
3.20
article

Cooling the land surface: Ecosystem health and water availability drive the landscape capacity to mitigate climate change

Jana Müllerová, Erik Šiffel
article en
4 citations

Abstract

• We investigated land surface temperature dynamics in a complex landscape. • Machine learning model enabled to assess complex multivariable relationships. • Water features and ecosystem health alleviate the temperature extremes. • High resolution is necessary to disentangle local patterns and environmental drivers. • Satellite data help to prepare adaptive management to mitigate climate change threats. Land surface temperature (LST) is profoundly interlinked with the landscape state, settings and functioning, with the connections being very complex. Although the role of wetlands and (semi)natural habitats, in mitigating climate extremes is generally understood, the mechanisms explaining the thermal patterns in complex landscapes remain unclear. We address this knowledge gap, investigating a link between the dynamics of LST and characteristics of a diverse sandstone landscape, focusing on the role of water features and forest health in alleviating temperature extremes. For our study, we used a model example of a sandstone protected area in the north of the Czech Republic that underwent significant changes during the last decade due to a bark beetle infestation and a consequent forest die-off and wildfire. LST data were obtained from MODIS and Landsat 8 sensors in a cloud-based Google Earth Engine platform. Machine learning regression model enabled us to assess complex multivariable relationships and increase the LST spatial resolution. The results suggest the significant effect of both water availability and ecosystem health on LST, with vegetation indices, land cover and elevation being the main factors. The correlation of the satellite-based LST and in situ measured temperature depended on the canopy cover. The study indicates that in complex landscapes, LST data of high spatial and temporal resolution is necessary to disentangle local patterns and environmental drivers. Satellite data can serve as a reliable means to understand the mechanisms and prepare adaptive management measures to make the landscape more resistant to climate change related threats.

Ecological IndicatorsVol. 172
Jan Evangelista Purkyně University in Ústí nad Labem (CZ)
Technologická Agentura České Republiky
Climate action
Openalex Percentile: Top 10%
Urban Heat Island Mitigation
3.20
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