Plant Biomechanics: No Pain, No Gain for Birch Tree Stems

Angela M. Schlegel; Elizabeth S. Haswell

doi:10.1016/j.cub.2019.12.069

Plant Biomechanics: No Pain, No Gain for Birch Tree Stems

Angela M. Schlegel, Elizabeth S. Haswell

Research output: Contribution to journal › Comment/debate

Abstract

Allometric relationships between organism size and shape are often described in developmental or evolutionary terms. A new study characterizes a collapsing birch tree mutant and provides a genetic entry point into the biomechanical control of tree allometry. Allometric relationships between organism size and shape are often described in developmental or evolutionary terms. A new study characterizes a collapsing birch tree mutant and provides a genetic entry point into the biomechanical control of tree allometry.

Original language	English
Pages (from-to)	R164-R166
Journal	Current Biology
Volume	30
Issue number	4
DOIs	https://doi.org/10.1016/j.cub.2019.12.069
State	Published - Feb 24 2020

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title = "Plant Biomechanics: No Pain, No Gain for Birch Tree Stems",

abstract = "Allometric relationships between organism size and shape are often described in developmental or evolutionary terms. A new study characterizes a collapsing birch tree mutant and provides a genetic entry point into the biomechanical control of tree allometry. Allometric relationships between organism size and shape are often described in developmental or evolutionary terms. A new study characterizes a collapsing birch tree mutant and provides a genetic entry point into the biomechanical control of tree allometry.",

author = "Schlegel, {Angela M.} and Haswell, {Elizabeth S.}",

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AU - Haswell, Elizabeth S.

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N2 - Allometric relationships between organism size and shape are often described in developmental or evolutionary terms. A new study characterizes a collapsing birch tree mutant and provides a genetic entry point into the biomechanical control of tree allometry. Allometric relationships between organism size and shape are often described in developmental or evolutionary terms. A new study characterizes a collapsing birch tree mutant and provides a genetic entry point into the biomechanical control of tree allometry.

AB - Allometric relationships between organism size and shape are often described in developmental or evolutionary terms. A new study characterizes a collapsing birch tree mutant and provides a genetic entry point into the biomechanical control of tree allometry. Allometric relationships between organism size and shape are often described in developmental or evolutionary terms. A new study characterizes a collapsing birch tree mutant and provides a genetic entry point into the biomechanical control of tree allometry.

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M3 - Comment/debate

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JO - Current Biology

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Plant Biomechanics: No Pain, No Gain for Birch Tree Stems

Abstract

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