Forests · 2019 · 93 citations · 35 references
Natural ResourcesEcologyForestryForest BiometricsForest EcologyForest InventoryAllometric ModelingBiomass EstimationCarbon Stock AssessmentCarbon Stock EstimationRemote Sensing For Forest InventoryTropical Forest EcologyAllometric Biomass EquationsBiomass-derived CarbonForest Biomass InventoryForest Carbon Biomass EstimationGeneric Biomass ModelsTerrestrial Carbon CycleTree-level Biomass EstimationTropical Forest Carbon Estimation
In tropical and sub-tropical regions, biomass carbon (C) losses through forest degradation are recognized as central to global terrestrial carbon cycles. Accurate estimation of forest biomass C is needed to provide information on C fluxes and balances in such systems. The objective of this study was to develop generalized biomass models using harvest data covering tropical semi-evergreen, tropical wet evergreen, sub-tropical broad leaved, and sub-tropical pine forest in North East India (NEI). Among the four biomass estimation models (BEMs) tested AGBest = 0.32(D2Hδ)0.75 × 1.34 and AGBest = 0.18D2.16 × 1.32 were found to be the first and second best models for the different forest types in NEI. The study also revealed that four commonly used generic models developed by Chambers (2001), Brown (1989), Chave (2005) and Chave (2014) overestimated biomass stocks by 300–591 kg tree−1, while our highest rated model overestimated biomass by 197 kg tree−1. We believe the BEMs we developed will be useful for practitioners involved in remote sensing, biomass estimation and in projects on climate change mitigation, and payment for ecosystem services. We recommend future studies to address country scale estimation of forest biomass covering different forest types.
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Tree allometry and improved estimation of carbon stocks and balance in tropical forests
Jérôme Chave, Christophe Andalo, Sandra Brown et al. · Oecologia · 2005 · 3.5K citations
Managing Forests for Climate Change Mitigation
Josep G. Canadell, Michael Raupach · Science · 2008 · 1.4K citations