First published online July 17, 2003; 10.1104/pp.103.022129
Plant Physiology 132:2256-2266 (2003)
© 2003 American Society of Plant Biologists
ENVIRONMENTAL STRESS AND ADAPTATION
Aluminum-Induced Gene Expression and Protein Localization of a Cell Wall-Associated Receptor Kinase in Arabidopsis1
Mayandi Sivaguru,
Bunichi Ezaki,
Zheng-Hui He,
Hongyun Tong,
Hiroki Osawa,
Franti ek Balu ka,
Dieter Volkmann and
Hideaki Matsumoto*
Molecular Cytology Core Facility, Molecular Biology Program, 2 Tucker
Hall, University of Missouri, Columbia, Missouri 652117400 (M.S.);
Research Institute for Bioresources, Okayama University, Chuo
2201, Kurashiki 7100046, Japan (B.E., H.O., H.M.);
Department of Biology, San Francisco State University, San Francisco,
California 94132 (Z.-H.H., H.T.); and Department of Plant Cell Biology,
Rheinische Friedrich-Wilhelms University of Bonn, Kirchalle 1, D53115
Bonn, Germany (F.B., D.V.)
Here, we report the aluminum (Al)-induced organ-specific expression of a
WAK1 (cell wall-associated receptor kinase 1) gene and cell
type-specific localization of WAK proteins in Arabidopsis.
WAK1-specific reverse transcriptase-polymerase chain reaction
analysis revealed an Al-induced WAK1 gene expression in roots. Short-
and long-term analysis of gene expression in root fractions showed a typical
"on" and "off" pattern with a first peak at 3 h of Al
exposure followed by a sharp decline at 6 h and a complete disappearance after
9 h of Al exposure, suggesting the WAK1 is a further representative
of Al-induced early genes. In shoots, upon root Al exposure, an increased but
stable WAK1 expression was observed. Using confocal microscopy, we
visualized Al-induced closure of leaf stomata, consistent with previous
suggestions that the Al stress primarily experienced in roots associated with
the transfer of root-shoot signals. Elevated levels of WAK protein in root
cells were observed through western blots after 6 h of Al exposure, indicating
a lag time between the Al-induced WAK transcription and translation. WAK
proteins are localized abundantly to peripheries of cortex cells within the
elongation zone of the root apex. In these root cells, disintegration of
cortical microtubules was observed after Al treatment but not after the Al
analog lanthanum treatments. Tip-growing control root hairs, stem stomata, and
leaf stomatal pores are characterized with high amounts of WAKs, suggesting
WAKs are accumulating at plasma membrane domains, which suffer from mechanical
stress and lack dense arrays of supporting cortical microtubules. Further,
transgenic plants overexpressing WAK1 showed an enhanced Al tolerance
in terms of root growth when compared with the wild-type plants, making the
WAK1 one of the important candidates for plant defense against Al
toxicity.
1 This work was supported by the Program for the Promotion of Basic Research
Activities in Innovative Biosciences; by the Ministry of Agriculture, Forests,
and Fisheries, Japan (to H.M.); by the Japan Society for the Promotion of
Science (postdoctoral fellowship to M.S.); and by the National Science
Foundation (grant no. MCB9985135 to Z.-H.H.).
*
Corresponding author; e-mail
hmatsumo{at}rib.okayamau.ac.jp;
fax 81864341249.
Received February 16, 2003;
returned for revision March 30, 2003;
accepted May 12, 2003.
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