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The Plant Cell, Vol. 14, 1191-1206, June 2002, Copyright © 2002,
American Society of Plant Biologists

GENOMICS ARTICLE

Contrapuntal Networks of Gene Expression during Arabidopsis Seed Filling

Sari A. Ruuska1,a, Thomas Girke2,b, Christoph Benningc and John B. Ohlroggea

a Department of Plant Biology, Michigan State University, East Lansing, Michigan 48824
b Dow AgroSciences, 5501 Oberlin Drive, San Diego, California 92121
c Department of Biochemistry and Molecular Biology, Michigan State University, East Lansing, Michigan 48824

1 To whom correspondence should be addressed. E-mail ruuska{at}pilot.msu.edu; fax 517-353-1926

We have used cDNA microarrays to examine changes in gene expression during Arabidopsis seed development and to compare wild-type and mutant wrinkled1 (wri1) seeds that have an 80% reduction in oil. Between 5 and 13 days after flowering, a period preceding and including the major accumulation of storage oils and proteins, ~35% of the genes represented on the array changed at least twofold, but a larger fraction (65%) showed little or no change in expression. Genes whose expression changed most tended to be expressed more in seeds than in other tissues. Genes related to the biosynthesis of storage components showed several distinct temporal expression patterns. For example, a number of genes encoding core fatty acid synthesis enzymes displayed a bell-shaped pattern of expression between 5 and 13 days after flowering. By contrast, the expression of storage proteins, oleosins, and other known abscisic acid–regulated genes increased later and remained high. Genes for photosynthetic proteins followed a pattern very similar to that of fatty acid synthesis proteins, implicating a role in CO2 refixation and the supply of cofactors for oil synthesis. Expression profiles of key carbon transporters and glycolytic enzymes reflected shifts in flux from cytosolic to plastid metabolism. Despite major changes in metabolism between wri1 and wild-type seeds, <1% of genes differed by more than twofold, and most of these were involved in central lipid and carbohydrate metabolism. Thus, these data define in part the downstream responses to disruption of the WRI1 gene.




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