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How do tree structure and old age affect growth potential of California redwoods?
by
Van Pelt, Robert
, Sillett, Stephen C.
, Ambrose, Anthony R.
, Trask, D'Arcy
, Kramer, Russell D.
, Carroll, Allyson L.
in
aboveground biomass
/ Age
/ age-growth relationships
/ Appendages
/ Bark
/ Biomass
/ Branches
/ California
/ California, USA
/ Cambium
/ climate change
/ conifer needles
/ Dendrochronology
/ Environmental changes
/ equations
/ growth efficiency
/ Heartwood
/ latitude
/ Leaves
/ Old growth forests
/ old-growth redwood forests
/ Plant growth
/ sapwood
/ senescence
/ Sequoia
/ Sequoia sempervirens
/ Sequoiadendron
/ Sequoiadendron giganteum
/ Tree age
/ Tree crowns
/ Tree growth
/ tree mortality
/ Tree trunks
/ Trees
/ Wood
/ wood volume
2015
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How do tree structure and old age affect growth potential of California redwoods?
by
Van Pelt, Robert
, Sillett, Stephen C.
, Ambrose, Anthony R.
, Trask, D'Arcy
, Kramer, Russell D.
, Carroll, Allyson L.
in
aboveground biomass
/ Age
/ age-growth relationships
/ Appendages
/ Bark
/ Biomass
/ Branches
/ California
/ California, USA
/ Cambium
/ climate change
/ conifer needles
/ Dendrochronology
/ Environmental changes
/ equations
/ growth efficiency
/ Heartwood
/ latitude
/ Leaves
/ Old growth forests
/ old-growth redwood forests
/ Plant growth
/ sapwood
/ senescence
/ Sequoia
/ Sequoia sempervirens
/ Sequoiadendron
/ Sequoiadendron giganteum
/ Tree age
/ Tree crowns
/ Tree growth
/ tree mortality
/ Tree trunks
/ Trees
/ Wood
/ wood volume
2015
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Do you wish to request the book?
How do tree structure and old age affect growth potential of California redwoods?
by
Van Pelt, Robert
, Sillett, Stephen C.
, Ambrose, Anthony R.
, Trask, D'Arcy
, Kramer, Russell D.
, Carroll, Allyson L.
in
aboveground biomass
/ Age
/ age-growth relationships
/ Appendages
/ Bark
/ Biomass
/ Branches
/ California
/ California, USA
/ Cambium
/ climate change
/ conifer needles
/ Dendrochronology
/ Environmental changes
/ equations
/ growth efficiency
/ Heartwood
/ latitude
/ Leaves
/ Old growth forests
/ old-growth redwood forests
/ Plant growth
/ sapwood
/ senescence
/ Sequoia
/ Sequoia sempervirens
/ Sequoiadendron
/ Sequoiadendron giganteum
/ Tree age
/ Tree crowns
/ Tree growth
/ tree mortality
/ Tree trunks
/ Trees
/ Wood
/ wood volume
2015
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How do tree structure and old age affect growth potential of California redwoods?
Journal Article
How do tree structure and old age affect growth potential of California redwoods?
2015
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Overview
As the only species exceeding 90 m in height and 2000 years of age,
Sequoia sempervirens
and
Sequoiadendron giganteum
provide the optimal platform upon which to examine interactions among tree structure, age, and growth. We climbed 140 trees in old-growth redwood forests across California, USA, spanning a broad range of sizes and including the tallest, largest, and oldest known living individuals (i.e., 115.86 vs. 96.29 m tall, 424 vs. 582 Mg aboveground dry mass, and 2510 vs. 3240 years old for
Sequoia
and
Sequoiadendron
, respectively). We used a combination of direct measurements, hierarchical sampling, and dendrochronology to quantify tree structure and annual growth increments through old age. We also developed equations to predict aboveground attributes of standing redwoods via ground-based measurements. Compared to
Sequoia
,
Sequoiadendron
develops thicker bark on lower trunks, provisions leaves with more sapwood, and delays heartwood production throughout the crown. Main trunk wood volume growth (up to 1.6 vs. 0.9 m
3
/yr), aboveground biomass growth (up to 0.77 vs. 0.45 Mg/yr), and aboveground growth efficiency (0.55 ± 0.04 vs. 0.22 ± 0.01 kg annual growth per kg leaves, mean ± SE) are all higher in
Sequoia
. Two independent dimensions of structure-size and aboveground vigor-are the strongest predictors of tree-level productivity in both species. A third dimension, relative trunk size, is a significant predictor of growth in
Sequoia
such that trees with relatively large main trunks compared to their crowns produce more wood annually. Similar-size trees grow at similar rates regardless of latitude or elevation in tall forests of each species. Recent annual growth increments are higher than in the past for the majority of trees, and old trees are just as responsive to environmental changes as young trees. Negative growth-age relationships in previous centuries and positive growth-age relationships in recent decades reflect sampling bias and shifting disturbance regimes. Overall, we find little (if any) evidence for negative effects of old age on tree-level productivity in either species. Except for recovery periods following temporary reductions in crown size, annual increments of wood volume and biomass growth increase as redwoods enlarge with age until extrinsic forces cause tree death.
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