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Forecasting deforestation and carbon loss across New Guinea using machine learning and cellular automata
Christoph Parsch1, Benjamin Wagner2, Jayden E Engert3
1Biodiversity, Macroecology and Biogeography, University of Goettingen, Buesgenweg 1, 37077 Goettingen, Germany.
The Science of the Total Environment
|March 8, 2025
Summary
Deforestation in New Guinea threatens biodiversity and carbon stocks. Machine learning models forecast high deforestation risk in lowlands, necessitating targeted conservation efforts to protect vulnerable ecosystems.
Area of Science:
- Ecology
- Environmental Science
- Remote Sensing
Background:
- New Guinea's ecosystems are highly biodiverse and endemic.
- Land-use change poses a significant threat to biodiversity and carbon stocks.
- Understanding deforestation drivers and future risks is crucial for conservation.
Purpose of the Study:
- Compare deforestation drivers between Indonesian New Guinea and Papua New Guinea.
- Identify high-risk deforestation areas under various development scenarios.
- Evaluate the impact of deforestation on carbon pools.
Main Methods:
- Integrated machine learning and cellular automata for deforestation modeling.
- Forecasted deforestation and assessed carbon stock loss for four scenarios (4.8%–28% forest loss).
- Analyzed deforestation risk across different altitudes and regions.
Main Results:
- High deforestation risk consistently forecasted in lowland regions.
- Deforestation in Indonesian New Guinea primarily below 380m a.s.l., higher in Papua New Guinea (<750m a.s.l.).
- Land-use change could result in 156–918 Mt carbon loss in Indonesian New Guinea and 223–1082 Mt in Papua New Guinea.
Conclusions:
- Machine learning and cellular automata effectively forecast high-resolution deforestation.
- New Guinea's lowlands are highly vulnerable to future deforestation.
- Prioritize protection of key areas where deforestation conflicts with carbon, ecosystem, and biodiversity conservation.
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