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THE PLANT CELL, Vol 7, Issue 3 295-307, Copyright © 1995 by American Society of Plant Biologists
Functional Dissection of an Abscisic Acid (ABA)-Inducible Gene Reveals Two Independent ABA-Responsive Complexes Each Containing a G-Box and a Novel cis-Acting Element
Q. Shen and THD. Ho
Plant Biology Program, Department of Biology, Division of Biology and Biomedical Sciences, Washington University, St. Louis, Missouri 63130
To elucidate the mechanism by which abscisic acid (ABA) regulates gene
expression, the promoter of the barley ABA-responsive HVA22 gene has been
analyzed by both loss- and gain-of-function studies. Previous reports
indicate that G-box sequences, which are present in genes responding to a
variety of environmental and physiological cues, are involved in ABA
response. However, our data suggest that G-box sequences are necessary but
not sufficient for ABA response. Instead, an ABA response complex
consisting of a G-box, namely, ABRE3 (GCCACGTACA), and a novel coupling
element, CE1 (TGCCACCGG), is sufficient for high-level ABA induction, and
replacement of either of these sequences abolishes ABA responsiveness. We
suggest that the interaction between G-box sequences, such as ABRE3 in the
HVA22 gene, and CE-type sequences determines the specificity in
ABA-regulated gene expression. Our results also demonstrate that the ABA
response complex is the minimal promoter unit governing high-level ABA
induction; four copies of this 49-bp-long complex linked to a minimal
promoter can confer more than 100-fold ABA-induced gene expression. In
addition to ABA response complex 1, composed of ABRE3 and CE1, the HVA22
promoter contains another ABA response complex. The ABA responsiveness of
this ABA response complex 2 relies on the interaction of a G-box (ABRE2;
CGCACGTGTC) with another yet unidentified coupling element. These two
complexes contribute incrementally to the expression level of HVA22 in
response to ABA.
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