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3D Reconstruction of deciduous Trees using low-cost UAV- and Crane-based Photogrammetry for Monitoring Shoot Elongation across entire Canopies

Summary

Researchers developed a low-cost method using UAV and crane-based photogrammetry to reconstruct deciduous trees in 3D for monitoring shoot elongation (primary growth). Achieving 5-6 mm accuracy and 92-98% completeness, the approach addresses a gap in climate change impact studies on tree growth.

SourcearXiv Computer VisionAuthor: Stephan Nebiker, Micha Tschanz, Nando Amport, Frederik Baumgarten
3D Reconstruction of deciduous Trees using low-cost UAV- and Crane-based Photogrammetry for Monitoring Shoot Elongation across entire Canopies
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[Submitted on 8 Jul 2026]

Title:3D Reconstruction of deciduous Trees using low-cost UAV- and Crane-based Photogrammetry for Monitoring Shoot Elongation across entire Canopies

View a PDF of the paper titled 3D Reconstruction of deciduous Trees using low-cost UAV- and Crane-based Photogrammetry for Monitoring Shoot Elongation across entire Canopies, by Stephan Nebiker and 3 other authors

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Abstract:Tree growth determines how much CO2 is sequestered from the atmosphere and temporarily stored in woody biomass. At the same time tree growth is affected by increasing temperatures, more frequent drought periods, late frosts and other extreme events associated with climate change. While continuous measurements of radial (secondary) tree growth using dendrometers are well established, monitoring of shoot elongation (primary growth) has largely been neglected because suitable measurement techniques are lacking. As a result, the effects of climate change on primary tree growth remain insufficiently understood. This work aims at reconstructing native deciduous trees in 3D as a basis for measuring and monitoring shoot elongation over entire tree canopies. Here we explored the use of low-cost UAV photogrammetry and of a multi-camera CraneCam system under real-world conditions. Data were collected in two study areas over an entire growing season. We present sensor evaluations, photogrammetric data acquisition and processing strategies. A special focus is placed on the analysis of the resulting photogrammetric 3D point clouds in terms of accuracy, resolution and completeness. Results demonstrate 3D point accuracies of 5-6 mm for entire trees using consumer-grade UAVs weighing less than 250 g and a 3D reconstruction completeness between 92% and 98% depending on the UAV type. The paper introduces a novel 3Dprinted ground-truth branch to evaluate the capability to reconstructing fine-detail structures such as thin tree shoots. Finally, we discuss operational challenges and initial experiments towards a skeletonization of entire trees based on photogrammetric point clouds.

Comments: Accepted to ISPRS Congress 2026, camera-ready version

Subjects:

Computer Vision and Pattern Recognition (cs.CV)

Cite as: arXiv:2607.07905 [cs.CV]

(or arXiv:2607.07905v1 [cs.CV] for this version)

https://doi.org/10.48550/arXiv.2607.07905

arXiv-issued DOI via DataCite (pending registration)

Submission history

From: Stephan Nebiker [view email] [v1] Wed, 8 Jul 2026 20:39:19 UTC (2,119 KB)

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Key points

  • Low-cost UAV and CraneCam photogrammetry enable 3D reconstruction of entire deciduous tree canopies
  • Achieved 5-6 mm point accuracy and 92-98% completeness
  • Novel 3D-printed ground-truth branch used to evaluate fine detail reconstruction
  • Method fills gap in monitoring primary tree growth (shoot elongation) under climate change

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