# Machine Learning and Geospatial Modeling Reveal Telecommunication Tower Suitability, Deployment Priorities, and Digital Connectivity Gaps Across Ethiopia
This repository contains the code, predictor metadata, and reproduction instructions for the manuscript:
> **Reja, A. A. & Yasin, K. H. (2026).** *Machine Learning and Geospatial Modeling Reveal Telecommunication Tower Suitability, Deployment Priorities, and Digital Connectivity Gaps Across Ethiopia.* Manuscript under review.
The framework integrates open Earth observation, Demographic and Health Survey (DHS), and crowdsourced infrastructure data through a stacked ensemble of LightGBM, XGBoost, Random Forest, and MaxEnt classifiers under nested spatial block cross-validation. It produces a national 1 km suitability surface, an operational priority surface, and a digital-equity-adjusted priority surface that systematically reveals geographies of digital exclusion missed by conventional siting maps.
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## Quick links
- π Manuscript and supplementary materials
- π¬ Reproduction guide
- π οΈ Pipeline scripts
- π Headline results
- π Data sources
- βοΈ Contact
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## Headline results
| Metric | Value |
|---|---|
| Tree-based AUC range (10-fold spatial CV) | **0.963β0.970** |
| LightGBM Brier score | **0.001529** |
| Greenfield-priority area | **109,630 kmΒ² (9.87% of national)** |
| Densification-priority area | **6,054 kmΒ² (0.54%)** |
| Spearman Ο (priority vs equity gap) | **β0.037** (essentially orthogonal) |
| Regional rank stability across 4 classifiers | **Ο = 0.91** |
| Variogram range of residuals | **7.45 km** (βͺ 50 km block size) |
See `results/` for the full set of cross-validated metrics, Moran I diagnostics, calibration scores, and threshold-sensitivity tables.
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## Repository structure
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telecom-tower-siting-ethiopia/
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βββ LICENSE β CC BY 4.0
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