Projecting multiclass global land-use and land-cover change using deep learning and spherical geographic automata model

Modelling land-use/landcover (LULC) change is vital for addressing global environmental and sustainability issues and evaluating various land system scenarios. However, existing geosimulation methodologies for global LULC change fail to account for spatial distortions caused by the Earth’s curvature and do not consider multiple LULC change processes. Thus, this research study proposes an enhanced spherical geosimulation modelling approach that integrates deep learning (DL) to simulate change of multiple classes of LULC process under the shared socioeconomic pathways (SSP) at the global level. Based on the simulation results, the frontiers of urbanization, cropland expansion, and deforestation are indicated to be in developing countries particularly in Asia and Africa. The simulation outputs also reveal 42.5%–63.2% of new urban development would occur on croplands. The proposed modelling approach can serve as a valuable tool for spatial decision-making and environmental policy formulation at the global level.

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Publication Details

Journal
Big Earth Data
Published
2024-08-20
DOI
https://doi.org/10.1080/20964471.2024.2386091
Citations
6
Primary Topic
Land Use and Ecosystem Services
Type
article
Field-Weighted Citation Impact
1.70

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article

Projecting multiclass global land-use and land-cover change using deep learning and spherical geographic automata model

Peter Hall, Kirsten Zickfeld, Bright Addae, Suzana Dragićević
6 citations
Big Earth Data
Land Use and Ecosystem Services
1.70
article

Projecting multiclass global land-use and land-cover change using deep learning and spherical geographic automata model

Peter Hall, Kirsten Zickfeld, Bright Addae, Suzana Dragićević
article en
6 citations

Abstract

Modelling land-use/landcover (LULC) change is vital for addressing global environmental and sustainability issues and evaluating various land system scenarios. However, existing geosimulation methodologies for global LULC change fail to account for spatial distortions caused by the Earth’s curvature and do not consider multiple LULC change processes. Thus, this research study proposes an enhanced spherical geosimulation modelling approach that integrates deep learning (DL) to simulate change of multiple classes of LULC process under the shared socioeconomic pathways (SSP) at the global level. Based on the simulation results, the frontiers of urbanization, cropland expansion, and deforestation are indicated to be in developing countries particularly in Asia and Africa. The simulation outputs also reveal 42.5%–63.2% of new urban development would occur on croplands. The proposed modelling approach can serve as a valuable tool for spatial decision-making and environmental policy formulation at the global level.

Big Earth DataVol. 9(1)
Simon Fraser University (CA)
Natural Sciences and Engineering Research Council of Canada
Sustainable cities and communities
Openalex Percentile: Top 17%
Land Use and Ecosystem Services
1.70
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