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PLANT PHYSIOLOGY , Vol 111, Issue 2 363-370, Copyright © 1996 by American Society of Plant Biologists
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GENE REGULATION AND MOLECULAR GENETICS |
The Interaction of Light and Abscisic Acid in the Regulation of Plant Gene Expression
S. C. Weatherwax, M. S. Ong, J. Degenhardt, E. A. Bray and E. M. Tobin
Molecular, Cellular, and Developmental Biology, University of California, Los Angeles, California 90095-1606 (S.C.W., M.S.O., J.D., E.M.T.)
Extended dark treatments of light-grown plants of both Lemna gibba and
Arabidopsis thaliana resulted in substantial increases in abscisic acid
(ABA) concentrations. The concentration of ABA could be negatively
regulated by phytochrome action in Lemna. As has been noted in other
species, ABA treatment reduced Lemna rbcS and Lhcb RNA levels, which are
positively regulated by phytochrome in many species. In view of these
observations, the possibility that phytochrome effects on gene expression
may be mediated primarily by changes in ABA was tested using a transient
assay in intact plants. The phytochrome responsiveness of the Lemna Lhcb2*1
promoter was still apparent in the presence of exogenous ABA. Additionally,
when 2-bp mutations were introduced into this promoter so that phytochrome
responsiveness was lost, a response to exogenous ABA was still present. We
conclude that phytochrome- and ABA-response elements are separable in the
Lhcb2*1 promoter. We tested whether the effects of ABA on RNA abundance
could be inhibited by treatment with gibberellin and found no evidence for
such an inhibition. We have also found that the ABA-responsive Em promoter
of wheat can be negatively regulated by phytochrome action. It is likely
that this regulation is mediated at least in part by phytochrome-induced
changes in ABA levels. Our results demonstrate that it is essential to take
into account that dark treatments and the phytochrome system can affect ABA
levels when interpreting studies of light-regulated genes.
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