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Handheld laser scanning detects spatiotemporal differences in the development of structural traits among species in restoration plantings

Citation

Camarretta, N and Harrison, PA and Lucieer, A and Potts, BM and Davidson, N and Hunt, M, Handheld laser scanning detects spatiotemporal differences in the development of structural traits among species in restoration plantings, Remote Sensing, 13, (9) Article 1706. ISSN 2072-4292 (2021) [Refereed Article]


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Copyright Statement

Copyright: 2021 by the authors. Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution 4.0 International (CC BY 4.0) license (https://creativecommons.org/licenses/by/

DOI: doi:10.3390/rs13091706

Abstract

A major challenge in ecological restoration is assessing the success of restoration plantings in producing habitats that provide the desired ecosystem functions and services. Forest structural complexity and biomass accumulation are key measures used to monitor restoration success and are important factors determining animal habitat availability and carbon sequestration. Monitoring their development through time using traditional field measurements can be costly and impractical, particularly at the landscape-scale, which is a common requirement in ecological restoration. We explored the application of proximal sensing technology as an alternative to traditional field surveys to capture the development of key forest structural traits in a restoration planting in the Midlands of Tasmania, Australia. We report the use of a hand-held laser scanner (ZEB1) to measure annual changes in structural traits at the tree-level, in a mixed species common-garden experiment from seven- to nine-years after planting. Using very dense point clouds, we derived estimates of multiple structural traits, including above ground biomass, tree height, stem diameter, crown dimensions, and crown properties. We detected annual increases in most LiDAR-derived traits, with individual crowns becoming increasingly interconnected. Time by species interaction were detected, and were associated with differences in productivity between species. We show the potential for remote sensing technology to monitor temporal changes in forest structural traits, as well as to provide base-line measures from which to assess the restoration trajectory towards a desired state.

Item Details

Item Type:Refereed Article
Keywords:hand-held laser scanning, ZEB1, LiDAR, structural attributes, species variation, individual tree, tree architecture, Eucalyptus
Research Division:Agricultural, Veterinary and Food Sciences
Research Group:Forestry sciences
Research Field:Forestry management and environment
Objective Division:Environmental Management
Objective Group:Terrestrial systems and management
Objective Field:Rehabilitation or conservation of terrestrial environments
UTAS Author:Camarretta, N (Mr Nicolo Camarretta)
UTAS Author:Harrison, PA (Dr Peter Harrison)
UTAS Author:Lucieer, A (Professor Arko Lucieer)
UTAS Author:Potts, BM (Professor Brad Potts)
UTAS Author:Hunt, M (Professor Mark Hunt)
ID Code:145973
Year Published:2021
Funding Support:Australian Research Council (IC150100004)
Deposited By:Plant Science
Deposited On:2021-08-14
Last Modified:2021-09-02
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