An XGBoost-Based Machine Learning Approach to Simulate Carbon Metrics for Forest Harvest Planning

It has become increasingly important to incorporate carbon metrics in the forest harvest planning process. The Generic Carbon Budget Model (GCBM) is a well-recognized tool to evaluate the potential impact of management decisions on carbon sequestration and storage, supporting sustainable forest management planning. Although GCBM is effective in carbon budgeting and estimating carbon metrics, its computational complexity makes it difficult to integrate into forest planning with multiple scenarios. In this regard, this study proposes using machine algorithms to expedite the output generated by GCBM. XGBoost was implemented to estimate the carbon pool and NEP in managed forests of Quebec. Furthermore, polynomial regression was also implemented to serve as a validation benchmark. Datasets with total sizes of 13.53 million and 7.56 million samples were compiled for NEP and carbon pool forecasting to run the model. The results indicate that XGBoost was able to accurately replicate the performance of the GCBM model for both NEP forecasting (R2 = 0.883) and carbon pool estimation (R2 = 0.967 for aboveground biomass). Although machine learning approaches are comparatively faster, GCBM still offers better accuracy. Hence, the decision on which method to use, either machine learning or GCBM, should be dictated by the specific objectives and the constraints of the project.

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Publication Details

Journal
Sustainability
Published
2025-06-13
DOI
https://doi.org/10.3390/su17125454
Citations
6
Primary Topic
Forest Management and Policy
Type
article
Field-Weighted Citation Impact
6.63
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article

An XGBoost-Based Machine Learning Approach to Simulate Carbon Metrics for Forest Harvest Planning

Bibek Subedi, Shuva Gautam, Guillaume Cyr, Alexandre Morneau et al.
6 citations
Sustainability
Forest Management and Policy
6.63
article

An XGBoost-Based Machine Learning Approach to Simulate Carbon Metrics for Forest Harvest Planning

Bibek Subedi, Shuva Gautam, Guillaume Cyr, Alexandre Morneau, Roland Tremblay, Luc LeBel, Jean-François Carle
article en
6 citations

Abstract

It has become increasingly important to incorporate carbon metrics in the forest harvest planning process. The Generic Carbon Budget Model (GCBM) is a well-recognized tool to evaluate the potential impact of management decisions on carbon sequestration and storage, supporting sustainable forest management planning. Although GCBM is effective in carbon budgeting and estimating carbon metrics, its computational complexity makes it difficult to integrate into forest planning with multiple scenarios. In this regard, this study proposes using machine algorithms to expedite the output generated by GCBM. XGBoost was implemented to estimate the carbon pool and NEP in managed forests of Quebec. Furthermore, polynomial regression was also implemented to serve as a validation benchmark. Datasets with total sizes of 13.53 million and 7.56 million samples were compiled for NEP and carbon pool forecasting to run the model. The results indicate that XGBoost was able to accurately replicate the performance of the GCBM model for both NEP forecasting (R2 = 0.883) and carbon pool estimation (R2 = 0.967 for aboveground biomass). Although machine learning approaches are comparatively faster, GCBM still offers better accuracy. Hence, the decision on which method to use, either machine learning or GCBM, should be dictated by the specific objectives and the constraints of the project.

SustainabilityVol. 17(12)
Ministère des Ressources naturelles et des Forêts (Québec) (CA), Université Laval (CA)
Openalex Percentile: Top 3%
Forest Management and Policy
6.63
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