Micro‐scale habitat associations of woody plants in a neotropical cloud forest

QUESTIONS: Species–habitat associations may contribute to the maintenance of species richness in tropical forests, but previous research has been conducted almost exclusively in lowland forests and has emphasized the importance of topography and edaphic conditions. Is the distribution of woody plant...

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Published inJournal of vegetation science Vol. 24; no. 6; pp. 1086 - 1097
Main Authors Ledo, Alicia, Burslem, David F.R.P, Condés, Sonia, Montes, Fernando, Cáceres, Miquel
Format Journal Article
LanguageEnglish
Published Oxford Opulus Press 01.11.2013
Blackwell Publishing Ltd
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Abstract QUESTIONS: Species–habitat associations may contribute to the maintenance of species richness in tropical forests, but previous research has been conducted almost exclusively in lowland forests and has emphasized the importance of topography and edaphic conditions. Is the distribution of woody plant species in a Peruvian cloud forest determined by microhabitat conditions? What is the role of environmental characteristics and forest structure in habitat partitioning in a tropical cloud forest? LOCATION: Cloud Forest, north Peruvian Andes. METHODS: We examined species–habitat associations in three 1‐ha plots using the torus‐translation method. We used three different criteria to define habitats for habitat partitioning analyses, based on microtopography, forest structure and both sets of factors. The number of species associated either positively or negatively with each habitat was assessed. RESULTS: Habitats defined on the basis of environmental conditions and forest structure discriminated a greater number of positive and negative associations at the scale of our analyses in a tropical cloud forest. CONCLUSIONS: Both topographic conditions and forest structure contribute to small‐scale microhabitat partitioning of woody plant species in a Peruvian tropical cloud forest. Nevertheless, canopy species were most correlated with the distribution of environmental variables, while understorey species displayed associations with forest structure.
AbstractList QUESTIONS: Species–habitat associations may contribute to the maintenance of species richness in tropical forests, but previous research has been conducted almost exclusively in lowland forests and has emphasized the importance of topography and edaphic conditions. Is the distribution of woody plant species in a Peruvian cloud forest determined by microhabitat conditions? What is the role of environmental characteristics and forest structure in habitat partitioning in a tropical cloud forest? LOCATION: Cloud Forest, north Peruvian Andes. METHODS: We examined species–habitat associations in three 1‐ha plots using the torus‐translation method. We used three different criteria to define habitats for habitat partitioning analyses, based on microtopography, forest structure and both sets of factors. The number of species associated either positively or negatively with each habitat was assessed. RESULTS: Habitats defined on the basis of environmental conditions and forest structure discriminated a greater number of positive and negative associations at the scale of our analyses in a tropical cloud forest. CONCLUSIONS: Both topographic conditions and forest structure contribute to small‐scale microhabitat partitioning of woody plant species in a Peruvian tropical cloud forest. Nevertheless, canopy species were most correlated with the distribution of environmental variables, while understorey species displayed associations with forest structure.
Questions Species–habitat associations may contribute to the maintenance of species richness in tropical forests, but previous research has been conducted almost exclusively in lowland forests and has emphasized the importance of topography and edaphic conditions. Is the distribution of woody plant species in a Peruvian cloud forest determined by microhabitat conditions? What is the role of environmental characteristics and forest structure in habitat partitioning in a tropical cloud forest? Location Cloud Forest, north Peruvian Andes. Methods We examined species–habitat associations in three 1‐ha plots using the torus‐translation method. We used three different criteria to define habitats for habitat partitioning analyses, based on microtopography, forest structure and both sets of factors. The number of species associated either positively or negatively with each habitat was assessed. Results Habitats defined on the basis of environmental conditions and forest structure discriminated a greater number of positive and negative associations at the scale of our analyses in a tropical cloud forest. Conclusions Both topographic conditions and forest structure contribute to small‐scale microhabitat partitioning of woody plant species in a Peruvian tropical cloud forest. Nevertheless, canopy species were most correlated with the distribution of environmental variables, while understorey species displayed associations with forest structure. We studied tree species‐habitat associations within three 1 ha plots in a Peruvian cloud forest. The micro‐scale distributions of canopy species were sensitive to topographic conditions, while low stature species were more sensitive to forest structure. We demonstrate that the inclusion of both topographic and forest structure variables in habitat association analyses provides a greater evidence of micro‐habitat partitioning than analyses incorporating either set of variables in isolation. We conclude that micro‐scale habitat associations contribute to the maintenance of species richness in this neotropical montane forest.
Questions Species-habitat associations may contribute to the maintenance of species richness in tropical forests, but previous research has been conducted almost exclusively in lowland forests and has emphasized the importance of topography and edaphic conditions. Is the distribution of woody plant species in a Peruvian cloud forest determined by microhabitat conditions? What is the role of environmental characteristics and forest structure in habitat partitioning in a tropical cloud forest? Location Cloud Forest, north Peruvian Andes. Methods We examined species-habitat associations in three 1-ha plots using the torus-translation method. We used three different criteria to define habitats for habitat partitioning analyses, based on microtopography, forest structure and both sets of factors. The number of species associated either positively or negatively with each habitat was assessed. Results Habitats defined on the basis of environmental conditions and forest structure discriminated a greater number of positive and negative associations at the scale of our analyses in a tropical cloud forest. Conclusions Both topographic conditions and forest structure contribute to small-scale microhabitat partitioning of woody plant species in a Peruvian tropical cloud forest. Nevertheless, canopy species were most correlated with the distribution of environmental variables, while understorey species displayed associations with forest structure. We studied tree species-habitat associations within three 1 ha plots in a Peruvian cloud forest. The micro-scale distributions of canopy species were sensitive to topographic conditions, while low stature species were more sensitive to forest structure. We demonstrate that the inclusion of both topographic and forest structure variables in habitat association analyses provides a greater evidence of micro-habitat partitioning than analyses incorporating either set of variables in isolation. We conclude that micro-scale habitat associations contribute to the maintenance of species richness in this neotropical montane forest.
Author Ledo, Alicia
Burslem, David F.R.P.
Condés, Sonia
Montes, Fernando
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Issue 6
Keywords Microhabitat
Andes
Habitat partitioning
Tropical zone
Plant ecology
Tropical forest
Coexistence
Woody plant
Dispersal limitation
Spatial distribution
Mountain
Partitioning
Microscale
Habitat
Spatial pattern
Plant sciences
Neotropical Region
Species co-existence
Species
Montane tropical forest
Peru
Mountain forest
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Appendix S1. Results of the species-habitat association analysis when (a) topographic variables (b) forest structure variables and (c) topographic and forest structure variables were used to define habitats. The low-stature and mid-canopy species are indicated by 'L' and the canopy and emergent species with 'C'. The '+' symbol indicates significant association with plot 1, the '*' symbol with plot 2 and the 'Θ' symbol with plot 3. The grey cells indicate a significant association when the three plots are analysed together.
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1993; 25
2007; 104
2001; 162
2006; 94
2009; 20
2011
1995; 15
2002; 130
2008; 19
2004; 7
2006; 17
2002; 112
1999; 283
1995
2005
1972
2003
2007; 95
2012; 38
2001; 28
1988; 75
2001; 89
1992; 32
1936
2009; 258
1978
1957; 22
1994; 143
2001; 82
2002; 160
2003; 91
2004; 92
2001
2010; 119
2006; 22
2004; 36
2000; 207
2000; 31
2009; 122
1977; 52
2005; 93
2000; 288
2007; 85
2007; 88
2006; 443
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Snippet QUESTIONS: Species–habitat associations may contribute to the maintenance of species richness in tropical forests, but previous research has been conducted...
Questions: Species–habitat associations may contribute to the maintenance of species richness in tropical forests, but previous research has been conducted...
Questions Species–habitat associations may contribute to the maintenance of species richness in tropical forests, but previous research has been conducted...
Questions Species-habitat associations may contribute to the maintenance of species richness in tropical forests, but previous research has been conducted...
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SubjectTerms Andes
Andes region
Animal and plant ecology
Animal, plant and microbial ecology
Biological and medical sciences
canopy
Cloud forests
Dispersal limitation
edaphic factors
Forest canopy
Forest habitats
Forestry
Fundamental and applied biological sciences. Psychology
Habitat partitioning
Habitats
lowland forests
microhabitats
microrelief
Montane tropical forest
Peru
Plants
Spatial pattern
Species
Species co-existence
species diversity
Trees
Tropical forests
tropical montane cloud forests
tropics
understory
Vegetation
Woody plants
Title Micro‐scale habitat associations of woody plants in a neotropical cloud forest
URI https://api.istex.fr/ark:/67375/WNG-PDR1B0NF-X/fulltext.pdf
https://www.jstor.org/stable/24035418
https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fjvs.12023
https://www.proquest.com/docview/1443376090
https://www.proquest.com/docview/1663582301
Volume 24
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