Topographic patterns in the phylogenetic structure of temperate forests on steep mountainous terrain
In this study, we tested the topographic trends of measurements of phylogenetic community structure in a catchment covered by temperate forests with complex relief in Japan. We found that phylogenetic structure changed with increasing slope inclination, change of slope aspect from south to north, an...
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Published in | AoB plants Vol. 7; p. plv134 |
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Main Authors | , , , |
Format | Journal Article |
Language | English |
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Oxford University Press
01.01.2015
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Abstract | In this study, we tested the topographic trends of measurements of phylogenetic community structure in a catchment covered by temperate forests with complex relief in Japan. We found that phylogenetic structure changed with increasing slope inclination, change of slope aspect from south to north, and decreasing soil depth. Our results suggested that environmental filtering caused by steep topography tended to restrict phylogenetic community composition at relatively stressful sites. On the other hand, species interaction functioned more strongly at relatively stress-free sites.
Abstract
In rugged terrain subject to active geomorphological processes, the species composition of forest communities changes along topographic gradients over short distances. However, the phylogenetic structure of forests on rugged terrain has rarely been examined. Understanding such structures provides insight into community assembly rules dependent on local environmental conditions. To this end, we tested the topographic trends of measurements of phylogenetic community structure [net relatedness index (NRI) and nearest taxon index] in a catchment covered by temperate forests with complex relief in Japan. We found that phylogenetic structure changed from over-dispersion to clustering with increasing slope inclination, change of slope aspect from south to north and decreasing soil depth. This result suggested that environmental filtering tended to restrict community composition at relatively stressful sites, whereas species interaction functioned more strongly at relatively stress-free sites. Relatively stressful sites were characterized by early-successional species that tended to assemble in certain phylogenetic clades, whereas highly competitive late-successional species associated with lower NRI at relatively stress-free sites. However, despite this significant topographic tendency, phylogenetic community structures were not statistically different from random assumptions in most plots. This obscuration of the phylogenetic structures at the plot level could be interpreted as species adapting to disturbances because they were abundant in this catchment. Accordingly, we suggest that a stochastic process was also important for this community at the plot level, although biotic and abiotic environmental filtering controlled the vegetation structure in the catchment, where disturbances occur frequently because of geomorphological mountain denudation processes owing to active crustal movements and abundant rainfall. |
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AbstractList | In rugged terrain subject to active geomorphological processes, the species composition of forest communities changes along topographic gradients over short distances. However, the phylogenetic structure of forests on rugged terrain has rarely been examined. Understanding such structures provides insight into community assembly rules dependent on local environmental conditions. To this end, we tested the topographic trends of measurements of phylogenetic community structure [net relatedness index (NRI) and nearest taxon index] in a catchment covered by temperate forests with complex relief in Japan. We found that phylogenetic structure changed from over-dispersion to clustering with increasing slope inclination, change of slope aspect from south to north and decreasing soil depth. This result suggested that environmental filtering tended to restrict community composition at relatively stressful sites, whereas species interaction functioned more strongly at relatively stress-free sites. Relatively stressful sites were characterized by early-successional species that tended to assemble in certain phylogenetic clades, whereas highly competitive late-successional species associated with lower NRI at relatively stress-free sites. However, despite this significant topographic tendency, phylogenetic community structures were not statistically different from random assumptions in most plots. This obscuration of the phylogenetic structures at the plot level could be interpreted as species adapting to disturbances because they were abundant in this catchment. Accordingly, we suggest that a stochastic process was also important for this community at the plot level, although biotic and abiotic environmental filtering controlled the vegetation structure in the catchment, where disturbances occur frequently because of geomorphological mountain denudation processes owing to active crustal movements and abundant rainfall. In this study, we tested the topographic trends of measurements of phylogenetic community structure in a catchment covered by temperate forests with complex relief in Japan. We found that phylogenetic structure changed with increasing slope inclination, change of slope aspect from south to north, and decreasing soil depth. Our results suggested that environmental filtering caused by steep topography tended to restrict phylogenetic community composition at relatively stressful sites. On the other hand, species interaction functioned more strongly at relatively stress-free sites. In rugged terrain subject to active geomorphological processes, the species composition of forest communities changes along topographic gradients over short distances. However, the phylogenetic structure of forests on rugged terrain has rarely been examined. Understanding such structures provides insight into community assembly rules dependent on local environmental conditions. To this end, we tested the topographic trends of measurements of phylogenetic community structure [net relatedness index (NRI) and nearest taxon index] in a catchment covered by temperate forests with complex relief in Japan. We found that phylogenetic structure changed from over-dispersion to clustering with increasing slope inclination, change of slope aspect from south to north and decreasing soil depth. This result suggested that environmental filtering tended to restrict community composition at relatively stressful sites, whereas species interaction functioned more strongly at relatively stress-free sites. Relatively stressful sites were characterized by early-successional species that tended to assemble in certain phylogenetic clades, whereas highly competitive late-successional species associated with lower NRI at relatively stress-free sites. However, despite this significant topographic tendency, phylogenetic community structures were not statistically different from random assumptions in most plots. This obscuration of the phylogenetic structures at the plot level could be interpreted as species adapting to disturbances because they were abundant in this catchment. Accordingly, we suggest that a stochastic process was also important for this community at the plot level, although biotic and abiotic environmental filtering controlled the vegetation structure in the catchment, where disturbances occur frequently because of geomorphological mountain denudation processes owing to active crustal movements and abundant rainfall. In this study, we tested the topographic trends of measurements of phylogenetic community structure in a catchment covered by temperate forests with complex relief in Japan. We found that phylogenetic structure changed with increasing slope inclination, change of slope aspect from south to north, and decreasing soil depth. Our results suggested that environmental filtering caused by steep topography tended to restrict phylogenetic community composition at relatively stressful sites. On the other hand, species interaction functioned more strongly at relatively stress-free sites. In rugged terrain subject to active geomorphological processes, the species composition of forest communities changes along topographic gradients over short distances. However, the phylogenetic structure of forests on rugged terrain has rarely been examined. Understanding such structures provides insight into community assembly rules dependent on local environmental conditions. To this end, we tested the topographic trends of measurements of phylogenetic community structure [net relatedness index (NRI) and nearest taxon index] in a catchment covered by temperate forests with complex relief in Japan. We found that phylogenetic structure changed from over-dispersion to clustering with increasing slope inclination, change of slope aspect from south to north and decreasing soil depth. This result suggested that environmental filtering tended to restrict community composition at relatively stressful sites, whereas species interaction functioned more strongly at relatively stress-free sites. Relatively stressful sites were characterized by early-successional species that tended to assemble in certain phylogenetic clades, whereas highly competitive late-successional species associated with lower NRI at relatively stress-free sites. However, despite this significant topographic tendency, phylogenetic community structures were not statistically different from random assumptions in most plots. This obscuration of the phylogenetic structures at the plot level could be interpreted as species adapting to disturbances because they were abundant in this catchment. Accordingly, we suggest that a stochastic process was also important for this community at the plot level, although biotic and abiotic environmental filtering controlled the vegetation structure in the catchment, where disturbances occur frequently because of geomorphological mountain denudation processes owing to active crustal movements and abundant rainfall. In this study, we tested the topographic trends of measurements of phylogenetic community structure in a catchment covered by temperate forests with complex relief in Japan. We found that phylogenetic structure changed with increasing slope inclination, change of slope aspect from south to north, and decreasing soil depth. Our results suggested that environmental filtering caused by steep topography tended to restrict phylogenetic community composition at relatively stressful sites. On the other hand, species interaction functioned more strongly at relatively stress-free sites. Abstract In rugged terrain subject to active geomorphological processes, the species composition of forest communities changes along topographic gradients over short distances. However, the phylogenetic structure of forests on rugged terrain has rarely been examined. Understanding such structures provides insight into community assembly rules dependent on local environmental conditions. To this end, we tested the topographic trends of measurements of phylogenetic community structure [net relatedness index (NRI) and nearest taxon index] in a catchment covered by temperate forests with complex relief in Japan. We found that phylogenetic structure changed from over-dispersion to clustering with increasing slope inclination, change of slope aspect from south to north and decreasing soil depth. This result suggested that environmental filtering tended to restrict community composition at relatively stressful sites, whereas species interaction functioned more strongly at relatively stress-free sites. Relatively stressful sites were characterized by early-successional species that tended to assemble in certain phylogenetic clades, whereas highly competitive late-successional species associated with lower NRI at relatively stress-free sites. However, despite this significant topographic tendency, phylogenetic community structures were not statistically different from random assumptions in most plots. This obscuration of the phylogenetic structures at the plot level could be interpreted as species adapting to disturbances because they were abundant in this catchment. Accordingly, we suggest that a stochastic process was also important for this community at the plot level, although biotic and abiotic environmental filtering controlled the vegetation structure in the catchment, where disturbances occur frequently because of geomorphological mountain denudation processes owing to active crustal movements and abundant rainfall. In rugged terrain subject to active geomorphological processes, the species composition of forest communities changes along topographic gradients over short distances. However, the phylogenetic structure of forests on rugged terrain has rarely been examined. Understanding such structures provides insight into community assembly rules dependent on local environmental conditions. To this end, we tested the topographic trends of measurements of phylogenetic community structure [net relatedness index (NRI) and nearest taxon index] in a catchment covered by temperate forests with complex relief in Japan. We found that phylogenetic structure changed from over-dispersion to clustering with increasing slope inclination, change of slope aspect from south to north and decreasing soil depth. This result suggested that environmental filtering tended to restrict community composition at relatively stressful sites, whereas species interaction functioned more strongly at relatively stress-free sites. Relatively stressful sites were characterized by early-successional species that tended to assemble in certain phylogenetic clades, whereas highly competitive late-successional species associated with lower NRI at relatively stress-free sites. However, despite this significant topographic tendency, phylogenetic community structures were not statistically different from random assumptions in most plots. This obscuration of the phylogenetic structures at the plot level could be interpreted as species adapting to disturbances because they were abundant in this catchment. Accordingly, we suggest that a stochastic process was also important for this community at the plot level, although biotic and abiotic environmental filtering controlled the vegetation structure in the catchment, where disturbances occur frequently because of geomorphological mountain denudation processes owing to active crustal movements and abundant rainfall.In rugged terrain subject to active geomorphological processes, the species composition of forest communities changes along topographic gradients over short distances. However, the phylogenetic structure of forests on rugged terrain has rarely been examined. Understanding such structures provides insight into community assembly rules dependent on local environmental conditions. To this end, we tested the topographic trends of measurements of phylogenetic community structure [net relatedness index (NRI) and nearest taxon index] in a catchment covered by temperate forests with complex relief in Japan. We found that phylogenetic structure changed from over-dispersion to clustering with increasing slope inclination, change of slope aspect from south to north and decreasing soil depth. This result suggested that environmental filtering tended to restrict community composition at relatively stressful sites, whereas species interaction functioned more strongly at relatively stress-free sites. Relatively stressful sites were characterized by early-successional species that tended to assemble in certain phylogenetic clades, whereas highly competitive late-successional species associated with lower NRI at relatively stress-free sites. However, despite this significant topographic tendency, phylogenetic community structures were not statistically different from random assumptions in most plots. This obscuration of the phylogenetic structures at the plot level could be interpreted as species adapting to disturbances because they were abundant in this catchment. Accordingly, we suggest that a stochastic process was also important for this community at the plot level, although biotic and abiotic environmental filtering controlled the vegetation structure in the catchment, where disturbances occur frequently because of geomorphological mountain denudation processes owing to active crustal movements and abundant rainfall. |
Author | Mori, Akira S. Kitagawa, Ryo Mimura, Makiko Sakai, Akiko |
Author_xml | – sequence: 1 givenname: Ryo surname: Kitagawa fullname: Kitagawa, Ryo email: ryoktgw31@gmail.com organization: 1 Forestry and Forest Products Research Institute, 1 Matsunosato, Tsukuba, Ibaraki 305-8687, Japan – sequence: 2 givenname: Makiko surname: Mimura fullname: Mimura, Makiko organization: 2 Department of BioEnvironmental Sciences, Tamagawa University, 6-1-1 Tamagawa gakuen, Machida, Tokyo194-8610, Japan – sequence: 3 givenname: Akira S. surname: Mori fullname: Mori, Akira S. organization: 3 Environment and Information Sciences, Yokohama National University, 79-1 Tokiwadai, Hodogaya Ward, Yokohama 240-8501, Japan – sequence: 4 givenname: Akiko surname: Sakai fullname: Sakai, Akiko organization: 3 Environment and Information Sciences, Yokohama National University, 79-1 Tokiwadai, Hodogaya Ward, Yokohama 240-8501, Japan |
BackLink | https://www.ncbi.nlm.nih.gov/pubmed/26602986$$D View this record in MEDLINE/PubMed |
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Copyright | Published by Oxford University Press on behalf of the Annals of Botany Company. 2015 Published by Oxford University Press on behalf of the Annals of Botany Company. Published by Oxford University Press on behalf of the Annals of Botany Company. This is an Open Access article distributed under the terms of the Creative Commons Attribution License (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted reuse, distribution, and reproduction in any medium, provided the original work is properly cited. Published by Oxford University Press on behalf of the Annals of Botany Company. This work is published under http://creativecommons.org/licenses/by/4.0/ (the “License”). Notwithstanding the ProQuest Terms and Conditions, you may use this content in accordance with the terms of the License. |
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Keywords | temperate forest in East Asia Community assembly rule topographic gradients heterogeneous environmental condition phylogenetic diversity |
Language | English |
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Snippet | In this study, we tested the topographic trends of measurements of phylogenetic community structure in a catchment covered by temperate forests with complex... In rugged terrain subject to active geomorphological processes, the species composition of forest communities changes along topographic gradients over short... |
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StartPage | plv134 |
SubjectTerms | Catchments Clustering Community composition Community structure Composition Denudation Disturbances Environmental conditions Filtration Forest communities Forests Geomorphology Phylogenetics Phylogeny Rainfall Soil depth Species composition Stochastic processes Temperate forests Terrain Topography Trends Vegetation |
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Title | Topographic patterns in the phylogenetic structure of temperate forests on steep mountainous terrain |
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