The importance of hydraulic architecture to the distribution patterns of trees in a central Amazonian forest

Species distributions and assemblage composition may be the result of trait selection through environmental filters. Here, we ask whether filtering of species at the local scale could be attributed to their hydraulic architectural traits, revealing the basis of hydrological microhabitat partitioning...

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Published inThe New phytologist Vol. 215; no. 1; pp. 113 - 125
Main Authors Cosme, Luiza H. M., Schietti, Juliana, Costa, Flávia R. C., Oliveira, Rafael S.
Format Journal Article
LanguageEnglish
Published England New Phytologist Trust 01.07.2017
Wiley Subscription Services, Inc
Subjects
Amazonia
Architecture
Area
Brazil
Climate
Climate change
Density
Distribution patterns
Ecological distribution
Ecosystem
Efficiency
environmental filters
Filters
Fluid filters
forests
functional trade‐offs
Gravity
Habitats
Height
Hydraulics
Hydrology
Internet
Investment
Investments
Leaf area
Leaves
Microenvironments
Microhabitat
Microhabitats
Partitioning
plant traits
Plateaus
Population Dynamics
prediction
Principal Component Analysis
Safety
sapwood
Species composition
species diversity
Species Specificity
Specific gravity
Tissue
topographical and hydrological conditions
Trees
Trees - anatomy & histology
Trees - metabolism
Trees - physiology
tropical forest
Valleys
Water - metabolism
Wood
wood anatomy
wood specific gravity
Xylem - anatomy & histology
Xylem - metabolism
Xylem - physiology
Amazonia
wood specific gravity
environmental filters
functional trade-offs
tropical forest
topographical and hydrological conditions
wood anatomy
plant traits
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Abstract Species distributions and assemblage composition may be the result of trait selection through environmental filters. Here, we ask whether filtering of species at the local scale could be attributed to their hydraulic architectural traits, revealing the basis of hydrological microhabitat partitioning in a Central Amazonian forest. We analyzed the hydraulic characteristics at tissue (anatomical traits, wood specific gravity (WSG)), organ (leaf area, specific leaf area (SLA), leaf area: sapwood area ratio) and whole-plant (height) levels for 28 pairs of congeneric species from 14 genera restricted to either valleys or plateaus of a terra-firme forest in Central Amazonia. On plateaus, species had higher WSG, but lower mean vessel area, mean vessel hydraulic diameter, sapwood area and SLA than in valleys; traits commonly associated with hydraulic safety. Mean vessel hydraulic diameter and mean vessel area increased with height for both habitats, but leaf area and leaf area: sapwood area ratio investments with tree height declined in valley vs plateau species. [Correction added after online publication 29 March 2017: the preceding sentence has been reworded.] Two strategies for either efficiency or safety were detected, based on vessel size or allocation to sapwood. In conclusion, contrasting hydrological conditions act as environmental filters, generating differences in species composition at the local scale. This has important implications for the prediction of species distributions under future climate change scenarios.
AbstractList Species distributions and assemblage composition may be the result of trait selection through environmental filters. Here, we ask whether filtering of species at the local scale could be attributed to their hydraulic architectural traits, revealing the basis of hydrological microhabitat partitioning in a Central Amazonian forest. We analyzed the hydraulic characteristics at tissue (anatomical traits, wood specific gravity (WSG)), organ (leaf area, specific leaf area (SLA), leaf area: sapwood area ratio) and whole-plant (height) levels for 28 pairs of congeneric species from 14 genera restricted to either valleys or plateaus of a terra-firme forest in Central Amazonia. On plateaus, species had higher WSG, but lower mean vessel area, mean vessel hydraulic diameter, sapwood area and SLA than in valleys; traits commonly associated with hydraulic safety. Mean vessel hydraulic diameter and mean vessel area increased with height for both habitats, but leaf area and leaf area: sapwood area ratio investments with tree height declined in valley vs plateau species. [Correction added after online publication 29 March 2017: the preceding sentence has been reworded.] Two strategies for either efficiency or safety were detected, based on vessel size or allocation to sapwood. In conclusion, contrasting hydrological conditions act as environmental filters, generating differences in species composition at the local scale. This has important implications for the prediction of species distributions under future climate change scenarios.
Species distributions and assemblage composition may be the result of trait selection through environmental filters. Here, we ask whether filtering of species at the local scale could be attributed to their hydraulic architectural traits, revealing the basis of hydrological microhabitat partitioning in a Central Amazonian forest. We analyzed the hydraulic characteristics at tissue (anatomical traits, wood specific gravity ( WSG )), organ (leaf area, specific leaf area ( SLA ), leaf area : sapwood area ratio) and whole‐plant (height) levels for 28 pairs of congeneric species from 14 genera restricted to either valleys or plateaus of a terra‐firme forest in Central Amazonia. On plateaus, species had higher WSG , but lower mean vessel area, mean vessel hydraulic diameter, sapwood area and SLA than in valleys; traits commonly associated with hydraulic safety. Mean vessel hydraulic diameter and mean vessel area increased with height for both habitats, but leaf area and leaf area : sapwood area ratio investments with tree height declined in valley vs plateau species. [Correction added after online publication 29 March 2017: the preceding sentence has been reworded.] Two strategies for either efficiency or safety were detected, based on vessel size or allocation to sapwood. In conclusion, contrasting hydrological conditions act as environmental filters, generating differences in species composition at the local scale. This has important implications for the prediction of species distributions under future climate change scenarios. See also the Commentary on this article by Christoffersen et al., 215 : 12–14.
Summary Species distributions and assemblage composition may be the result of trait selection through environmental filters. Here, we ask whether filtering of species at the local scale could be attributed to their hydraulic architectural traits, revealing the basis of hydrological microhabitat partitioning in a Central Amazonian forest. We analyzed the hydraulic characteristics at tissue (anatomical traits, wood specific gravity (WSG)), organ (leaf area, specific leaf area (SLA), leaf area : sapwood area ratio) and whole‐plant (height) levels for 28 pairs of congeneric species from 14 genera restricted to either valleys or plateaus of a terra‐firme forest in Central Amazonia. On plateaus, species had higher WSG, but lower mean vessel area, mean vessel hydraulic diameter, sapwood area and SLA than in valleys; traits commonly associated with hydraulic safety. Mean vessel hydraulic diameter and mean vessel area increased with height for both habitats, but leaf area and leaf area : sapwood area ratio investments with tree height declined in valley vs plateau species. [Correction added after online publication 29 March 2017: the preceding sentence has been reworded.] Two strategies for either efficiency or safety were detected, based on vessel size or allocation to sapwood. In conclusion, contrasting hydrological conditions act as environmental filters, generating differences in species composition at the local scale. This has important implications for the prediction of species distributions under future climate change scenarios. See also the Commentary on this article by Christoffersen et al., 215: 12–14.
Summary Species distributions and assemblage composition may be the result of trait selection through environmental filters. Here, we ask whether filtering of species at the local scale could be attributed to their hydraulic architectural traits, revealing the basis of hydrological microhabitat partitioning in a Central Amazonian forest. We analyzed the hydraulic characteristics at tissue (anatomical traits, wood specific gravity (WSG)), organ (leaf area, specific leaf area (SLA), leaf area : sapwood area ratio) and whole-plant (height) levels for 28 pairs of congeneric species from 14 genera restricted to either valleys or plateaus of a terra-firme forest in Central Amazonia. On plateaus, species had higher WSG, but lower mean vessel area, mean vessel hydraulic diameter, sapwood area and SLA than in valleys; traits commonly associated with hydraulic safety. Mean vessel hydraulic diameter and mean vessel area increased with height for both habitats, but leaf area and leaf area : sapwood area ratio investments with tree height declined in valley vs plateau species. [Correction added after online publication 29 March 2017: the preceding sentence has been reworded.] Two strategies for either efficiency or safety were detected, based on vessel size or allocation to sapwood. In conclusion, contrasting hydrological conditions act as environmental filters, generating differences in species composition at the local scale. This has important implications for the prediction of species distributions under future climate change scenarios. See also the Commentary on this article by Christoffersen et al., 215: 12-14.
Species distributions and assemblage composition may be the result of trait selection through environmental filters. Here, we ask whether filtering of species at the local scale could be attributed to their hydraulic architectural traits, revealing the basis of hydrological microhabitat partitioning in a Central Amazonian forest. We analyzed the hydraulic characteristics at tissue (anatomical traits, wood specific gravity (WSG)), organ (leaf area, specific leaf area (SLA), leaf area : sapwood area ratio) and whole‐plant (height) levels for 28 pairs of congeneric species from 14 genera restricted to either valleys or plateaus of a terra‐firme forest in Central Amazonia. On plateaus, species had higher WSG, but lower mean vessel area, mean vessel hydraulic diameter, sapwood area and SLA than in valleys; traits commonly associated with hydraulic safety. Mean vessel hydraulic diameter and mean vessel area increased with height for both habitats, but leaf area and leaf area : sapwood area ratio investments with tree height declined in valley vs plateau species. [Correction added after online publication 29 March 2017: the preceding sentence has been reworded.] Two strategies for either efficiency or safety were detected, based on vessel size or allocation to sapwood. In conclusion, contrasting hydrological conditions act as environmental filters, generating differences in species composition at the local scale. This has important implications for the prediction of species distributions under future climate change scenarios.
Species distributions and assemblage composition may be the result of trait selection through environmental filters. Here, we ask whether filtering of species at the local scale could be attributed to their hydraulic architectural traits, revealing the basis of hydrological microhabitat partitioning in a Central Amazonian forest. We analyzed the hydraulic characteristics at tissue (anatomical traits, wood specific gravity (WSG)), organ (leaf area, specific leaf area (SLA), leaf area : sapwood area ratio) and whole-plant (height) levels for 28 pairs of congeneric species from 14 genera restricted to either valleys or plateaus of a terra-firme forest in Central Amazonia. On plateaus, species had higher WSG, but lower mean vessel area, mean vessel hydraulic diameter, sapwood area and SLA than in valleys; traits commonly associated with hydraulic safety. Mean vessel hydraulic diameter and mean vessel area increased with height for both habitats, but leaf area and leaf area : sapwood area ratio investments with tree height declined in valley vs plateau species. [Correction added after online publication 29 March 2017: the preceding sentence has been reworded.] Two strategies for either efficiency or safety were detected, based on vessel size or allocation to sapwood. In conclusion, contrasting hydrological conditions act as environmental filters, generating differences in species composition at the local scale. This has important implications for the prediction of species distributions under future climate change scenarios.
Species distributions and assemblage composition may be the result of trait selection through environmental filters. Here, we ask whether filtering of species at the local scale could be attributed to their hydraulic architectural traits, revealing the basis of hydrological microhabitat partitioning in a Central Amazonian forest. We analyzed the hydraulic characteristics at tissue (anatomical traits, wood specific gravity (WSG)), organ (leaf area, specific leaf area (SLA), leaf area : sapwood area ratio) and whole-plant (height) levels for 28 pairs of congeneric species from 14 genera restricted to either valleys or plateaus of a terra-firme forest in Central Amazonia. On plateaus, species had higher WSG, but lower mean vessel area, mean vessel hydraulic diameter, sapwood area and SLA than in valleys; traits commonly associated with hydraulic safety. Mean vessel hydraulic diameter and mean vessel area increased with height for both habitats, but leaf area and leaf area : sapwood area ratio investments with tree height declined in valley vs plateau species. [Correction added after online publication 29 March 2017: the preceding sentence has been reworded.] Two strategies for either efficiency or safety were detected, based on vessel size or allocation to sapwood. In conclusion, contrasting hydrological conditions act as environmental filters, generating differences in species composition at the local scale. This has important implications for the prediction of species distributions under future climate change scenarios.Species distributions and assemblage composition may be the result of trait selection through environmental filters. Here, we ask whether filtering of species at the local scale could be attributed to their hydraulic architectural traits, revealing the basis of hydrological microhabitat partitioning in a Central Amazonian forest. We analyzed the hydraulic characteristics at tissue (anatomical traits, wood specific gravity (WSG)), organ (leaf area, specific leaf area (SLA), leaf area : sapwood area ratio) and whole-plant (height) levels for 28 pairs of congeneric species from 14 genera restricted to either valleys or plateaus of a terra-firme forest in Central Amazonia. On plateaus, species had higher WSG, but lower mean vessel area, mean vessel hydraulic diameter, sapwood area and SLA than in valleys; traits commonly associated with hydraulic safety. Mean vessel hydraulic diameter and mean vessel area increased with height for both habitats, but leaf area and leaf area : sapwood area ratio investments with tree height declined in valley vs plateau species. [Correction added after online publication 29 March 2017: the preceding sentence has been reworded.] Two strategies for either efficiency or safety were detected, based on vessel size or allocation to sapwood. In conclusion, contrasting hydrological conditions act as environmental filters, generating differences in species composition at the local scale. This has important implications for the prediction of species distributions under future climate change scenarios.
Author Juliana Schietti
Flávia R. C. Costa
Rafael S. Oliveira
Luiza H. M. Cosme
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  givenname: Luiza H. M.
  surname: Cosme
  fullname: Cosme, Luiza H. M.
  email: luiza_hmc@hotmail.com
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  givenname: Juliana
  surname: Schietti
  fullname: Schietti, Juliana
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  givenname: Flávia R. C.
  surname: Costa
  fullname: Costa, Flávia R. C.
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  givenname: Rafael S.
  surname: Oliveira
  fullname: Oliveira, Rafael S.
  organization: Universidade Estadual de Campinas
BackLink https://www.ncbi.nlm.nih.gov/pubmed/28369998$$D View this record in MEDLINE/PubMed
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Issue 1
Keywords wood specific gravity
environmental filters
functional trade-offs
tropical forest
topographical and hydrological conditions
wood anatomy
plant traits
Language English
License http://onlinelibrary.wiley.com/termsAndConditions#vor
2017 The Authors. New Phytologist © 2017 New Phytologist Trust.
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Notes 12–14.
Correction added after online publication 29 March 2017: a second author for correspondence has been inserted.
Christoffersen
215
See also the Commentary on this article by
et al.
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SSID ssj0009562
Score 2.5136805
Snippet Species distributions and assemblage composition may be the result of trait selection through environmental filters. Here, we ask whether filtering of species...
Summary Species distributions and assemblage composition may be the result of trait selection through environmental filters. Here, we ask whether filtering of...
Summary Species distributions and assemblage composition may be the result of trait selection through environmental filters. Here, we ask whether filtering of...
SourceID proquest
pubmed
crossref
wiley
jstor
SourceType Aggregation Database
Index Database
Enrichment Source
Publisher
StartPage 113
SubjectTerms Amazonia
Architecture
Area
Brazil
Climate
Climate change
Density
Distribution patterns
Ecological distribution
Ecosystem
Efficiency
environmental filters
Filters
Fluid filters
forests
functional trade‐offs
Gravity
Habitats
Height
Hydraulics
Hydrology
Internet
Investment
Investments
Leaf area
Leaves
Microenvironments
Microhabitat
Microhabitats
Partitioning
plant traits
Plateaus
Population Dynamics
prediction
Principal Component Analysis
Safety
sapwood
Species composition
species diversity
Species Specificity
Specific gravity
Tissue
topographical and hydrological conditions
Trees
Trees - anatomy & histology
Trees - metabolism
Trees - physiology
tropical forest
Valleys
Water - metabolism
Wood
wood anatomy
wood specific gravity
Xylem - anatomy & histology
Xylem - metabolism
Xylem - physiology
Title The importance of hydraulic architecture to the distribution patterns of trees in a central Amazonian forest
URI https://www.jstor.org/stable/90010637
https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fnph.14508
https://www.ncbi.nlm.nih.gov/pubmed/28369998
https://www.proquest.com/docview/1903787425
https://www.proquest.com/docview/1884165911
https://www.proquest.com/docview/2000502055
Volume 215
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