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Ground based LiDAR demonstrates the legacy of management history to canopy structure and composition across a fragmented temperate woodland

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Published

Standard

Ground based LiDAR demonstrates the legacy of management history to canopy structure and composition across a fragmented temperate woodland. / McMahon, Sean; Bebber, Daniel; Butt, Nathalie et al.
In: Forest Ecology and Management, Vol. 335, 01.01.2015, p. 255-260.

Research output: Contribution to Journal/MagazineJournal articlepeer-review

Harvard

McMahon, S, Bebber, D, Butt, N, Crockatt, M, Kirby, K, Parker, G, Riutta, T & Slade, EM 2015, 'Ground based LiDAR demonstrates the legacy of management history to canopy structure and composition across a fragmented temperate woodland', Forest Ecology and Management, vol. 335, pp. 255-260. https://doi.org/10.1016/j.foreco.2014.08.039

APA

McMahon, S., Bebber, D., Butt, N., Crockatt, M., Kirby, K., Parker, G., Riutta, T., & Slade, E. M. (2015). Ground based LiDAR demonstrates the legacy of management history to canopy structure and composition across a fragmented temperate woodland. Forest Ecology and Management, 335, 255-260. https://doi.org/10.1016/j.foreco.2014.08.039

Vancouver

McMahon S, Bebber D, Butt N, Crockatt M, Kirby K, Parker G et al. Ground based LiDAR demonstrates the legacy of management history to canopy structure and composition across a fragmented temperate woodland. Forest Ecology and Management. 2015 Jan 1;335:255-260. Epub 2014 Oct 27. doi: 10.1016/j.foreco.2014.08.039

Author

McMahon, Sean ; Bebber, Daniel ; Butt, Nathalie et al. / Ground based LiDAR demonstrates the legacy of management history to canopy structure and composition across a fragmented temperate woodland. In: Forest Ecology and Management. 2015 ; Vol. 335. pp. 255-260.

Bibtex

@article{378fb6d7e1a74857a966af5e6de45277,
title = "Ground based LiDAR demonstrates the legacy of management history to canopy structure and composition across a fragmented temperate woodland",
abstract = "The structure of forest canopies correlates with stand maturity and biomass, and develops consistently over time. Remote-sensing technologies such as Light Detection and Ranging (LiDAR) have become prominent tools for measuring structural characteristics of forests.We walked a portable canopy LiDAR (PCL), an up-facing rangefinder that detects vegetation through the canopy at two kilohertz, along multiple transects at ten different forest stands in the area of Wytham Woods, Oxfordshire, UK. The stands had different species composition, were situated at forest edges and in forest core, were in fragments of different sizes and had different land-use histories. With these data we tested structural differences in vegetation across these stand types.Although none of the stands have been managed in the last 70 years, they have not converged structurally. Vertical canopy structure differed between stands that regrew naturally from open field and those with a history of coppice management. Forest stands that have developed following major fellings or through spread on to former grazing land showed some structural similarities to classic natural succession from large disturbances. Stands that were actively managed as coppice over preceding centuries, showed a similar structural pattern to mature forest, but without the tall overstorey that can develop into old growth communities.This structural divergence indicates two distinct pathways for secondary forests: with implications for the future biomass, stand structure, and species composition. The legacy of management practices can determine canopy structure decades after the forest is removed from active management, but can also be difficult to discern with remote sensing data. We recommend that “ground-truthing” remote sensing data go beyond traditional checks of height and topography, as the history and composition of secondary forests can have an important influence on the pace and compositional structure of recovery from management.",
keywords = "Canopy structure, LiDAR, Forest fragments, Land-use history, Secondary forest, Wytham Woods",
author = "Sean McMahon and Daniel Bebber and Nathalie Butt and Martha Crockatt and Keith Kirby and Geoffrey Parker and Terhi Riutta and Slade, {Eleanor M.}",
year = "2015",
month = jan,
day = "1",
doi = "10.1016/j.foreco.2014.08.039",
language = "English",
volume = "335",
pages = "255--260",
journal = "Forest Ecology and Management",
issn = "0378-1127",
publisher = "Elsevier Science B.V.",

}

RIS

TY - JOUR

T1 - Ground based LiDAR demonstrates the legacy of management history to canopy structure and composition across a fragmented temperate woodland

AU - McMahon, Sean

AU - Bebber, Daniel

AU - Butt, Nathalie

AU - Crockatt, Martha

AU - Kirby, Keith

AU - Parker, Geoffrey

AU - Riutta, Terhi

AU - Slade, Eleanor M.

PY - 2015/1/1

Y1 - 2015/1/1

N2 - The structure of forest canopies correlates with stand maturity and biomass, and develops consistently over time. Remote-sensing technologies such as Light Detection and Ranging (LiDAR) have become prominent tools for measuring structural characteristics of forests.We walked a portable canopy LiDAR (PCL), an up-facing rangefinder that detects vegetation through the canopy at two kilohertz, along multiple transects at ten different forest stands in the area of Wytham Woods, Oxfordshire, UK. The stands had different species composition, were situated at forest edges and in forest core, were in fragments of different sizes and had different land-use histories. With these data we tested structural differences in vegetation across these stand types.Although none of the stands have been managed in the last 70 years, they have not converged structurally. Vertical canopy structure differed between stands that regrew naturally from open field and those with a history of coppice management. Forest stands that have developed following major fellings or through spread on to former grazing land showed some structural similarities to classic natural succession from large disturbances. Stands that were actively managed as coppice over preceding centuries, showed a similar structural pattern to mature forest, but without the tall overstorey that can develop into old growth communities.This structural divergence indicates two distinct pathways for secondary forests: with implications for the future biomass, stand structure, and species composition. The legacy of management practices can determine canopy structure decades after the forest is removed from active management, but can also be difficult to discern with remote sensing data. We recommend that “ground-truthing” remote sensing data go beyond traditional checks of height and topography, as the history and composition of secondary forests can have an important influence on the pace and compositional structure of recovery from management.

AB - The structure of forest canopies correlates with stand maturity and biomass, and develops consistently over time. Remote-sensing technologies such as Light Detection and Ranging (LiDAR) have become prominent tools for measuring structural characteristics of forests.We walked a portable canopy LiDAR (PCL), an up-facing rangefinder that detects vegetation through the canopy at two kilohertz, along multiple transects at ten different forest stands in the area of Wytham Woods, Oxfordshire, UK. The stands had different species composition, were situated at forest edges and in forest core, were in fragments of different sizes and had different land-use histories. With these data we tested structural differences in vegetation across these stand types.Although none of the stands have been managed in the last 70 years, they have not converged structurally. Vertical canopy structure differed between stands that regrew naturally from open field and those with a history of coppice management. Forest stands that have developed following major fellings or through spread on to former grazing land showed some structural similarities to classic natural succession from large disturbances. Stands that were actively managed as coppice over preceding centuries, showed a similar structural pattern to mature forest, but without the tall overstorey that can develop into old growth communities.This structural divergence indicates two distinct pathways for secondary forests: with implications for the future biomass, stand structure, and species composition. The legacy of management practices can determine canopy structure decades after the forest is removed from active management, but can also be difficult to discern with remote sensing data. We recommend that “ground-truthing” remote sensing data go beyond traditional checks of height and topography, as the history and composition of secondary forests can have an important influence on the pace and compositional structure of recovery from management.

KW - Canopy structure

KW - LiDAR

KW - Forest fragments

KW - Land-use history

KW - Secondary forest

KW - Wytham Woods

U2 - 10.1016/j.foreco.2014.08.039

DO - 10.1016/j.foreco.2014.08.039

M3 - Journal article

VL - 335

SP - 255

EP - 260

JO - Forest Ecology and Management

JF - Forest Ecology and Management

SN - 0378-1127

ER -