TY - JOUR
T1 - Terrestrial laser scanning in forest ecology
T2 - Expanding the horizon
AU - Calders, Kim
AU - Adams, Jennifer
AU - Armston, John
AU - Bartholomeus, Harm
AU - Bauwens, Sebastien
AU - Bentley, Lisa Patrick
AU - Chave, Jerome
AU - Danson, Mark
AU - Demol, Miro
AU - Disney, Mathias
AU - Gaulton, Rachel
AU - Krishna Moorthy, Sruthi M.
AU - Levick, Shaun R.
AU - Saarinen, Ninni
AU - Schaaf, Crystal
AU - Stovall, Atticus
AU - Terryn, Louise
AU - Wilkes, Phil
AU - Verbeeck, Hans
PY - 2020/12
Y1 - 2020/12
N2 - Terrestrial laser scanning (TLS) was introduced for basic forest measurements, such as tree height and diameter, in the early 2000s. Recent advances in sensor and algorithm development have allowed us to assess in situ 3D forest structure explicitly and revolutionised the way we monitor and quantify ecosystem structure and function. Here, we provide an interdisciplinary focus to explore current developments in TLS to measure and monitor forest structure. We argue that TLS data will play a critical role in understanding fundamental ecological questions about tree size and shape, allometric scaling, metabolic function and plasticity of form. Furthermore, these new developments enable new applications such as radiative transfer modelling with realistic virtual forests, monitoring of urban forests and larger scale ecosystem monitoring through long-range scanning. Finally, we discuss upscaling of TLS data through data fusion with unmanned aerial vehicles, airborne and spaceborne data, as well as the essential role of TLS in validation of spaceborne missions that monitor ecosystem structure.
AB - Terrestrial laser scanning (TLS) was introduced for basic forest measurements, such as tree height and diameter, in the early 2000s. Recent advances in sensor and algorithm development have allowed us to assess in situ 3D forest structure explicitly and revolutionised the way we monitor and quantify ecosystem structure and function. Here, we provide an interdisciplinary focus to explore current developments in TLS to measure and monitor forest structure. We argue that TLS data will play a critical role in understanding fundamental ecological questions about tree size and shape, allometric scaling, metabolic function and plasticity of form. Furthermore, these new developments enable new applications such as radiative transfer modelling with realistic virtual forests, monitoring of urban forests and larger scale ecosystem monitoring through long-range scanning. Finally, we discuss upscaling of TLS data through data fusion with unmanned aerial vehicles, airborne and spaceborne data, as well as the essential role of TLS in validation of spaceborne missions that monitor ecosystem structure.
KW - Forest ecology
KW - Forest plot measurement
KW - Ground-based LiDAR
KW - Remote sensing
KW - Terrestrial laser scanning
KW - Tree structure
UR - https://doi.org/10.5281/zenodo.5070689
U2 - 10.1016/j.rse.2020.112102
DO - 10.1016/j.rse.2020.112102
M3 - Article
AN - SCOPUS:85091568779
SN - 0034-4257
VL - 251
JO - Remote Sensing of Environment
JF - Remote Sensing of Environment
M1 - 112102
ER -