Meta data
- BibTeX key
- Balletal_04
- entry type
- article
- year
- 2004
- journal
- Functional Plant Biology
- pages
- 29--40
- volume
- 31
- citeulike-article-id
- 1523606
- priority
- 5
- posted-at
- 2007-07-31 06:04:13
- citeulike-linkout-0
- http://www.publish.csiro.au/?act=view\_file&\#38;file\_id=FP03164.pdf
- comment
- (private-note)intracellular freezing get Martinez-vilalta and pockman 2002 Freezing is likely to form in the lumens of vessels because the spaces in the walls are too small for crystal growth (*and the intracellular spaces are full of air, not water?*) ICF in some phloem and cambial cells of unacclimated tissues then cambial cells ruptured the parenchyma cells of the phloem has the highest water content of the parenchyma cells and therefore would be expected to freeze at the highest temperature. The sieve tubes and companion cells have high solute content, however, and may achieve a glassy state expansion zones no large accumulations of extracellular ice within the midvein of acclimated leaves (except in expansion zones) no distortion of the cambium no ICF The ray cells were caramelised like my cells Little recovery in unacclimated tissues on thawing can identify the damaged cells because they're more watery: have fewer eutectics.
- Document
- http://www.publish.csiro.au/?act=view\_file\&\#38;file\_id=FP03164.pdf
Tags
- bibtex-import,
- cellular,
- citeulikeexport
- cryo,
- expansion\_zones,
- freezing,
- ice,
- intracellular,
- snowgumpapermaybe,
- spread,
- techniques,
- tolerance
Users
Comments and Reviewsshow / hide
Cite this publication
More citation styles
- please select -%0 Journal Article
%1 Balletal_04
%A Ball, Marilyn C.
%A Canny, Martin J.
%A Huang, Chen X.
%A Heady, Roger D.
%D 2004
%J Functional Plant Biology
%K bibtex-import, cellular, citeulikeExport cryo, expansion\_zones, freezing, ice, intracellular, snowgumpapermaybe, spread, techniques, tolerance
%P 29--40
%T Structural changes in acclimated and unacclimated leaves during freezing and thawing
%U http://www.publish.csiro.au/?act=view\_file&\#38;file\_id=FP03164.pdf
%V 31
@article{Balletal_04,
added-at = {2019-03-31T01:14:40.000+0100},
author = {Ball, Marilyn C. and Canny, Martin J. and Huang, Chen X. and Heady, Roger D.},
biburl = {https://www.bibsonomy.org/bibtex/2400ee887c7a8548c0d0fa29ab041cd31/dianella},
citeulike-article-id = {1523606},
citeulike-linkout-0 = {http://www.publish.csiro.au/?act=view\_file\&\#38;file\_id=FP03164.pdf},
comment = {(private-note)intracellular freezing get Martinez-vilalta and pockman 2002 Freezing is likely to form in the lumens of vessels because the spaces in the walls are too small for crystal growth (*and the intracellular spaces are full of air, not water?*) ICF in some phloem and cambial cells of unacclimated tissues then cambial cells ruptured the parenchyma cells of the phloem has the highest water content of the parenchyma cells and therefore would be expected to freeze at the highest temperature. The sieve tubes and companion cells have high solute content, however, and may achieve a glassy state expansion zones no large accumulations of extracellular ice within the midvein of acclimated leaves (except in expansion zones) no distortion of the cambium no ICF The ray cells were caramelised like my cells Little recovery in unacclimated tissues on thawing can identify the damaged cells because they're more watery: have fewer eutectics.},
interhash = {343aac1aa07879fd43363ce443c4955c},
intrahash = {400ee887c7a8548c0d0fa29ab041cd31},
journal = {Functional Plant Biology},
keywords = {bibtex-import, cellular, citeulikeExport cryo, expansion\_zones, freezing, ice, intracellular, snowgumpapermaybe, spread, techniques, tolerance},
pages = {29--40},
posted-at = {2007-07-31 06:04:13},
priority = {5},
timestamp = {2019-03-31T01:16:26.000+0100},
title = {{Structural changes in acclimated and unacclimated leaves during freezing and thawing}},
url = {http://www.publish.csiro.au/?act=view\_file\&\#38;file\_id=FP03164.pdf},
volume = 31,
year = 2004
}