High-resolution urban land use change modeling via sequential classifiers

Urban land use change models are vital tools for anticipating spatial development and its socio-economic and environmental impacts. Yet most models treat urban areas as thematically homogeneous, overlooking variation in residential and economic intensity. We present a high-resolution model for Switzerland’s densely populated Swiss Plateau (1999 settlements, hectare resolution). Using two sequential XGBoost classifiers, our model first predicts urban growth or shrinkage, then assigns one of 27 urban land use classes based on residential density, job density, and economic sector. Trained on five-year intervals (1995–2015) and validated with 2020 data, it achieves 92.3% accuracy for urban extent and a fuzzy kappa of 0.692 for class predictions. Transitions are shaped by neighborhood effects. Projections to 2050 show core cities densify most (+300 ha high density), while peri-urban and residential municipalities expand mainly at low to medium intensities (+3.7% area). Scenario testing illustrates how strategic projects reshape land use beyond intervention sites, supporting informed planning across diverse futures. • Models 27 urban classes by residential density, job density, and economic sector. • Captures change across all settlement sizes at hectare resolution. • Projects densification in urban cores and expansion in peri-urban areas. • Identifies distinct development patterns by municipal type. • Local developments can trigger broader regional land use changes.

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Publication Details

Journal
Computers Environment and Urban Systems
Published
2026-01-14
DOI
https://doi.org/10.1016/j.compenvurbsys.2026.102400
Primary Topic
Land Use and Ecosystem Services
Type
article
Field-Weighted Citation Impact
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article

High-resolution urban land use change modeling via sequential classifiers

Yves M. Räth, Maarten J. van Strien, Adrienne Grêt‐Regamey
Computers Environment and Urban Systems
Land Use and Ecosystem Services
article

High-resolution urban land use change modeling via sequential classifiers

Yves M. Räth, Maarten J. van Strien, Adrienne Grêt‐Regamey
article en

Abstract

Urban land use change models are vital tools for anticipating spatial development and its socio-economic and environmental impacts. Yet most models treat urban areas as thematically homogeneous, overlooking variation in residential and economic intensity. We present a high-resolution model for Switzerland’s densely populated Swiss Plateau (1999 settlements, hectare resolution). Using two sequential XGBoost classifiers, our model first predicts urban growth or shrinkage, then assigns one of 27 urban land use classes based on residential density, job density, and economic sector. Trained on five-year intervals (1995–2015) and validated with 2020 data, it achieves 92.3% accuracy for urban extent and a fuzzy kappa of 0.692 for class predictions. Transitions are shaped by neighborhood effects. Projections to 2050 show core cities densify most (+300 ha high density), while peri-urban and residential municipalities expand mainly at low to medium intensities (+3.7% area). Scenario testing illustrates how strategic projects reshape land use beyond intervention sites, supporting informed planning across diverse futures. • Models 27 urban classes by residential density, job density, and economic sector. • Captures change across all settlement sizes at hectare resolution. • Projects densification in urban cores and expansion in peri-urban areas. • Identifies distinct development patterns by municipal type. • Local developments can trigger broader regional land use changes.

Computers Environment and Urban SystemsVol. 125
ETH Zurich (CH)
Sustainable cities and communities
Openalex Percentile: Top 92%
Land Use and Ecosystem Services
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