A global climate niche for giant trees

Rainforests are among the most charismatic as well as the most endangered ecosystems of the world. However, although the effects of climate change on tropical forests resilience is a focus of intense research, the conditions for their equally impressive temperate counterparts remain poorly understood, and it remains unclear whether tropical and temperate rainforests have fundamental similarities or not. Here we use new global data from high precision laser altimetry equipment on satellites to reveal for the first time that across climate zones ‘giant forests’ are a distinct and universal phenomenon, reflected in a separate mode of canopy height (~40 m) worldwide. Occurrence of these giant forests (cutoff height > 25 m) is negatively correlated with variability in rainfall and temperature. We also demonstrate that their distribution is sharply limited to situations with a mean annual precipitation above a threshold of 1,500 mm that is surprisingly universal across tropical and temperate climates. The total area with such precipitation levels is projected to increase by ~4 million km2 globally. Our results thus imply that strategic management could in principle facilitate the expansion of giant forests, securing critically endangered biodiversity as well as carbon storage in selected regions.

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Bibliographic Details
Main Authors: Scheffer, Marten, Xu, Chi, Hantson, Stijn, Holmgren, Milena, Los, Sietse O., van Nes, Egbert H.
Format: Article/Letter to editor biblioteca
Language:English
Subjects:LiDAR, alternative ecosystem state, canopy height, precipitation temperate rainforest, remote sensing, resilience, threshold, tropical rainforest,
Online Access:https://research.wur.nl/en/publications/a-global-climate-niche-for-giant-trees
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spelling dig-wur-nl-wurpubs-5384012024-08-14 Scheffer, Marten Xu, Chi Hantson, Stijn Holmgren, Milena Los, Sietse O. van Nes, Egbert H. Article/Letter to editor Global Change Biology 24 (2018) 7 ISSN: 1354-1013 A global climate niche for giant trees 2018 Rainforests are among the most charismatic as well as the most endangered ecosystems of the world. However, although the effects of climate change on tropical forests resilience is a focus of intense research, the conditions for their equally impressive temperate counterparts remain poorly understood, and it remains unclear whether tropical and temperate rainforests have fundamental similarities or not. Here we use new global data from high precision laser altimetry equipment on satellites to reveal for the first time that across climate zones ‘giant forests’ are a distinct and universal phenomenon, reflected in a separate mode of canopy height (~40 m) worldwide. Occurrence of these giant forests (cutoff height > 25 m) is negatively correlated with variability in rainfall and temperature. We also demonstrate that their distribution is sharply limited to situations with a mean annual precipitation above a threshold of 1,500 mm that is surprisingly universal across tropical and temperate climates. The total area with such precipitation levels is projected to increase by ~4 million km2 globally. Our results thus imply that strategic management could in principle facilitate the expansion of giant forests, securing critically endangered biodiversity as well as carbon storage in selected regions. en application/pdf https://research.wur.nl/en/publications/a-global-climate-niche-for-giant-trees 10.1111/gcb.14167 https://edepot.wur.nl/453422 LiDAR alternative ecosystem state canopy height precipitation temperate rainforest remote sensing resilience threshold tropical rainforest https://creativecommons.org/licenses/by/4.0/ Wageningen University & Research
institution WUR NL
collection DSpace
country Países bajos
countrycode NL
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databasecode dig-wur-nl
tag biblioteca
region Europa del Oeste
libraryname WUR Library Netherlands
language English
topic LiDAR
alternative ecosystem state
canopy height
precipitation temperate rainforest
remote sensing
resilience
threshold
tropical rainforest
LiDAR
alternative ecosystem state
canopy height
precipitation temperate rainforest
remote sensing
resilience
threshold
tropical rainforest
spellingShingle LiDAR
alternative ecosystem state
canopy height
precipitation temperate rainforest
remote sensing
resilience
threshold
tropical rainforest
LiDAR
alternative ecosystem state
canopy height
precipitation temperate rainforest
remote sensing
resilience
threshold
tropical rainforest
Scheffer, Marten
Xu, Chi
Hantson, Stijn
Holmgren, Milena
Los, Sietse O.
van Nes, Egbert H.
A global climate niche for giant trees
description Rainforests are among the most charismatic as well as the most endangered ecosystems of the world. However, although the effects of climate change on tropical forests resilience is a focus of intense research, the conditions for their equally impressive temperate counterparts remain poorly understood, and it remains unclear whether tropical and temperate rainforests have fundamental similarities or not. Here we use new global data from high precision laser altimetry equipment on satellites to reveal for the first time that across climate zones ‘giant forests’ are a distinct and universal phenomenon, reflected in a separate mode of canopy height (~40 m) worldwide. Occurrence of these giant forests (cutoff height > 25 m) is negatively correlated with variability in rainfall and temperature. We also demonstrate that their distribution is sharply limited to situations with a mean annual precipitation above a threshold of 1,500 mm that is surprisingly universal across tropical and temperate climates. The total area with such precipitation levels is projected to increase by ~4 million km2 globally. Our results thus imply that strategic management could in principle facilitate the expansion of giant forests, securing critically endangered biodiversity as well as carbon storage in selected regions.
format Article/Letter to editor
topic_facet LiDAR
alternative ecosystem state
canopy height
precipitation temperate rainforest
remote sensing
resilience
threshold
tropical rainforest
author Scheffer, Marten
Xu, Chi
Hantson, Stijn
Holmgren, Milena
Los, Sietse O.
van Nes, Egbert H.
author_facet Scheffer, Marten
Xu, Chi
Hantson, Stijn
Holmgren, Milena
Los, Sietse O.
van Nes, Egbert H.
author_sort Scheffer, Marten
title A global climate niche for giant trees
title_short A global climate niche for giant trees
title_full A global climate niche for giant trees
title_fullStr A global climate niche for giant trees
title_full_unstemmed A global climate niche for giant trees
title_sort global climate niche for giant trees
url https://research.wur.nl/en/publications/a-global-climate-niche-for-giant-trees
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