Relating Plant Biodiversity in Forests with the Spatial Scale of Ecosystem Processes

Plant species diversity of North-Central European forests is quantified by diversity profiles that give different weights to rare and dominant species. Diversity profiles saturate with increasing sample area obeying a hyperbolic saturation model. The paper addresses the question about (1) the spatia...

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Main Author: Martin Jenssen
Format: Article
Language:English
Published: Hindawi Limited 2009-01-01
Series:International Journal of Ecology
Online Access:http://dx.doi.org/10.1155/2009/683061
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spelling doaj-899398ce31264341b266a6a703bcb3e02020-11-24T22:47:29ZengHindawi LimitedInternational Journal of Ecology1687-97081687-97162009-01-01200910.1155/2009/683061683061Relating Plant Biodiversity in Forests with the Spatial Scale of Ecosystem ProcessesMartin Jenssen0Ecosystem Analysis Department, Institute for Forest Science Eberswalde, Hohensaatener Dorfstraße 27, 16259 Bad Freienwalde, GermanyPlant species diversity of North-Central European forests is quantified by diversity profiles that give different weights to rare and dominant species. Diversity profiles saturate with increasing sample area obeying a hyperbolic saturation model. The paper addresses the question about (1) the spatial scale where this saturation is approached and (2) the nature of related processes. The study is based on about 1,700 vegetation relevés in close-to-nature beech forests and in secondary Scots pine forests which were classified in seven ecosystem types that are distinguished with respect to site factors, dominant tree species, and ecosystem processes. The relevés corresponding to a certain type are successively accumulated to composed relevés with increasing sample area in order to study saturation behaviour. The more weight is given to rare species the larger is the sample area where saturation is approached. The complexity of the processes that determine saturation increases with increasing weight of rare species. With increasing resource availability the part of the occurring plants that have immediate control on local ecosystem processes like primary production, nutrient cycling, and water balance increases. The presented approach allows an estimation of minimum area required for covering vegetation patterns that are related to these processes.http://dx.doi.org/10.1155/2009/683061
collection DOAJ
language English
format Article
sources DOAJ
author Martin Jenssen
spellingShingle Martin Jenssen
Relating Plant Biodiversity in Forests with the Spatial Scale of Ecosystem Processes
International Journal of Ecology
author_facet Martin Jenssen
author_sort Martin Jenssen
title Relating Plant Biodiversity in Forests with the Spatial Scale of Ecosystem Processes
title_short Relating Plant Biodiversity in Forests with the Spatial Scale of Ecosystem Processes
title_full Relating Plant Biodiversity in Forests with the Spatial Scale of Ecosystem Processes
title_fullStr Relating Plant Biodiversity in Forests with the Spatial Scale of Ecosystem Processes
title_full_unstemmed Relating Plant Biodiversity in Forests with the Spatial Scale of Ecosystem Processes
title_sort relating plant biodiversity in forests with the spatial scale of ecosystem processes
publisher Hindawi Limited
series International Journal of Ecology
issn 1687-9708
1687-9716
publishDate 2009-01-01
description Plant species diversity of North-Central European forests is quantified by diversity profiles that give different weights to rare and dominant species. Diversity profiles saturate with increasing sample area obeying a hyperbolic saturation model. The paper addresses the question about (1) the spatial scale where this saturation is approached and (2) the nature of related processes. The study is based on about 1,700 vegetation relevés in close-to-nature beech forests and in secondary Scots pine forests which were classified in seven ecosystem types that are distinguished with respect to site factors, dominant tree species, and ecosystem processes. The relevés corresponding to a certain type are successively accumulated to composed relevés with increasing sample area in order to study saturation behaviour. The more weight is given to rare species the larger is the sample area where saturation is approached. The complexity of the processes that determine saturation increases with increasing weight of rare species. With increasing resource availability the part of the occurring plants that have immediate control on local ecosystem processes like primary production, nutrient cycling, and water balance increases. The presented approach allows an estimation of minimum area required for covering vegetation patterns that are related to these processes.
url http://dx.doi.org/10.1155/2009/683061
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