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EARLY RESPONSE TO DEHYDRATION 7 Remodels Cell Membrane Lipid Composition During Cold Stress in Arabidopsis

Tiwari Arjun; Pascual Jesús; Zarza Xavier; Munnik Teun; Bakowska Joanna C; de Dios Barajas-Lopez Juan; Punkkinen Matleena; Fujii Hiroaki; Shaw Molly W

EARLY RESPONSE TO DEHYDRATION 7 Remodels Cell Membrane Lipid Composition During Cold Stress in Arabidopsis

Tiwari Arjun
Pascual Jesús
Zarza Xavier
Munnik Teun
Bakowska Joanna C
de Dios Barajas-Lopez Juan
Punkkinen Matleena
Fujii Hiroaki
Shaw Molly W
Katso/Avaa
Final draft (3.080Mb)
Lataukset: 

Oxford University Press
doi:10.1093/pcp/pcaa139
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Julkaisun pysyvä osoite on:
https://urn.fi/URN:NBN:fi-fe2021042824655
Tiivistelmä

Plants adjust to unfavorable conditions by altering physiological
activities such as gene expression. Although previous studies have
identified multiple stress-induced genes, the function of many genes
during the stress responses remains unclear. Expression of ERD7 (Early Response to Dehydration 7)
is induced in response to dehydration. Here, we show that ERD7 plays
essential roles in both plant stress responses and development. In
Arabidopsis, ERD7 protein accumulated under various stress conditions
including exposure to low temperature. A triple mutant of Arabidopsis
lacking ERD7 and two closely-related homologs had an embryonic lethal phenotype, whereas a mutant lacking the two homologs and one ERD7 allele had relatively round leaves, indicating that the ERD7 gene family has essential roles in development. Moreover, the importance of the ERD7
family in stress responses was evidenced by the susceptibility of the
mutant lines to cold stress. ERD7 protein was found to bind to several,
but not all, negatively charged phospholipids, and was associated with
membranes. Lipid components and cold-induced reduction of PIP2
in the mutant line were altered relative to wild type. Furthermore,
membranes from the mutant line had reduced fluidity. Taken together,
ERD7 and its homologs are important for plant stress responses and
development and associated with modification of membrane lipid
composition.

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