Learning to Predict Aboveground Biomass from RGB Images with 3D Synthetic Scenes
Silvia Zuffi

TL;DR
This paper introduces a novel learning-based method to estimate aboveground biomass from a single RGB image using synthetic 3D forest scenes, achieving accurate results and enabling scalable forest monitoring.
Contribution
It is the first approach to directly estimate aboveground biomass from a single RGB image, leveraging synthetic datasets and dense prediction techniques.
Findings
Median AGB estimation error of 1.22 kg/m^2 on synthetic data
Median AGB estimation error of 1.94 kg/m^2 on real images
First method to estimate AGB directly from RGB images
Abstract
Forests play a critical role in global ecosystems by supporting biodiversity and mitigating climate change via carbon sequestration. Accurate aboveground biomass (AGB) estimation is essential for assessing carbon storage and wildfire fuel loads, yet traditional methods rely on labor-intensive field measurements or remote sensing approaches with significant limitations in dense vegetation. In this work, we propose a novel learning-based method for estimating AGB from a single ground-based RGB image. We frame this as a dense prediction task, introducing AGB density maps, where each pixel represents tree biomass normalized by the plot area and each tree's image area. We leverage the recently introduced synthetic 3D SPREAD dataset, which provides realistic forest scenes with per-image tree attributes (height, trunk and canopy diameter) and instance segmentation masks. Using these assets, we…
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Taxonomy
TopicsRemote Sensing and LiDAR Applications · Remote Sensing in Agriculture · Advanced Neural Network Applications
