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Mesoporosity as a new parameter for understanding tension stress generation in trees

The mechanism for tree orientation in angiosperms is based on the production of high tensile stress on the upper side of the inclined axis. In many species, the stress level is strongly related to the presence of a peculiar layer, called the G-layer, in the fibre cell wall. The structure of the G-la...

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Published in:Journal of experimental botany 2009-07, Vol.60 (11), p.3023-3030
Main Authors: Chang, Shan-Shan, Clair, Bruno, Ruelle, Julien, Beauchêne, Jacques, Di Renzo, Francesco, Quignard, Françoise, Zhao, Guang-Jie, Yamamoto, Hiroyuki, Gril, Joseph
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cited_by cdi_FETCH-LOGICAL-c556t-d3796498818cf2ef18ef5c6e9a215f082c05aba831cb23b3bd3663e46244e20c3
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creator Chang, Shan-Shan
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Zhao, Guang-Jie
Yamamoto, Hiroyuki
Gril, Joseph
description The mechanism for tree orientation in angiosperms is based on the production of high tensile stress on the upper side of the inclined axis. In many species, the stress level is strongly related to the presence of a peculiar layer, called the G-layer, in the fibre cell wall. The structure of the G-layer has recently been described as a hydrogel thanks to N₂ adsorption-desorption isotherms of supercritically dried samples showing a high mesoporosity (pores size from 2-50 nm). This led us to revisit the concept of the G-layer that had been, until now, only described from anatomical observation. Adsorption isotherms of both normal wood and tension wood have been measured on six tropical species. Measurements show that mesoporosity is high in tension wood with a typical thick G-layer while it is much less with a thinner G-layer, sometimes no more than normal wood. The mesoporosity of tension wood species without a G-layer is as low as in normal wood. Not depending on the amount of pores, the pore size distribution is always centred around 6-12 nm. These results suggest that, among species producing fibres with a G-layer, large structural differences of the G-layer exist between species.
doi_str_mv 10.1093/jxb/erp133
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subjects Adsorption
Aerogels
Agricultural sciences
Biological and medical sciences
Biomechanical Phenomena
Biophysics - methods
Botanics
Desorption
Fundamental and applied biological sciences. Psychology
Growth stress
hydrogel
Hysteresis
Isotherms
Life Sciences
mesoporosity
Porosity
RESEARCH PAPER
Silviculture, forestry
Stress, Mechanical
Surface areas
Tension wood
Trees - anatomy & histology
Trees - chemistry
Trees - physiology
Vegetal Biology
Wood
title Mesoporosity as a new parameter for understanding tension stress generation in trees
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