Automated forest inventory: analysis of high-density airborne LiDAR
point clouds with 3D deep learning
- URL: http://arxiv.org/abs/2312.15084v2
- Date: Fri, 23 Feb 2024 07:44:00 GMT
- Title: Automated forest inventory: analysis of high-density airborne LiDAR
point clouds with 3D deep learning
- Authors: Binbin Xiang and Maciej Wielgosz and Theodora Kontogianni and Torben
Peters and Stefano Puliti and Rasmus Astrup and Konrad Schindler
- Abstract summary: ForAINet is able to perform a segmentation across diverse forest types and geographic regions.
System has been tested on FOR-Instance, a dataset of point clouds that have been acquired in five different countries using surveying drones.
- Score: 16.071397465972893
- License: http://arxiv.org/licenses/nonexclusive-distrib/1.0/
- Abstract: Detailed forest inventories are critical for sustainable and flexible
management of forest resources, to conserve various ecosystem services. Modern
airborne laser scanners deliver high-density point clouds with great potential
for fine-scale forest inventory and analysis, but automatically partitioning
those point clouds into meaningful entities like individual trees or tree
components remains a challenge. The present study aims to fill this gap and
introduces a deep learning framework, termed ForAINet, that is able to perform
such a segmentation across diverse forest types and geographic regions. From
the segmented data, we then derive relevant biophysical parameters of
individual trees as well as stands. The system has been tested on FOR-Instance,
a dataset of point clouds that have been acquired in five different countries
using surveying drones. The segmentation back-end achieves over 85% F-score for
individual trees, respectively over 73% mean IoU across five semantic
categories: ground, low vegetation, stems, live branches and dead branches.
Building on the segmentation results our pipeline then densely calculates
biophysical features of each individual tree (height, crown diameter, crown
volume, DBH, and location) and properties per stand (digital terrain model and
stand density). Especially crown-related features are in most cases retrieved
with high accuracy, whereas the estimates for DBH and location are less
reliable, due to the airborne scanning setup.
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