Differential response of genes for ferredoxin and ferredoxin : NADP+ oxidoreductase to nitrate and light in maize leaves
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Mutation of FdC2 gene encoding a ferredoxin-like protein with C-terminal extension causes yellow-green leaf phenotype in rice
2015, Plant ScienceCitation Excerpt :Some Fd genes have been identified in higher plants [2,10–17]. Maize contains eight different coding sequences listed as Fds in genomic and cDNA databases [30], and six of them (Fd I to Fd VI) have been identified by screening cDNA library with an antibody, or using heterologous hybridization methods [12–15,31,32]. In Arabidopsis, Fed A (Fd2) encoding an ferredoxin was the first Fd gene cloned, by screening a genomic library with a ferredoxin cDNA sequence from Silene pratensis [33].
Redox-shuttling between chloroplast and cytosol: Integration of intra-chloroplast and extra-chloroplast metabolism
2012, Current Opinion in Plant BiologyCitation Excerpt :The C4 dicarboxylate cycle is distributed between the two cell types, and acts as a CO2 pump to concentrate CO2 for the Calvin–Benson cycle in the BS chloroplasts. Primary nitrate assimilation occurs in M cells, and nitrate assimilatory enzymes such as NR and nitrite reductase are found predominantly in M cells in maize, an NADP-malic enzyme (ME)-type C4 plant [41,42]. Nitrogen assimilation reactions produce large demands for both energy and reducing power; therefore, spatial separation of the Calvin–Benson cycle in BS cells and nitrate assimilation pathway in M cells avoids competition for reductant utilization between the pathways and increases efficiencies of both the metabolisms.
Interactions between nitrogen and cytokinin in the regulation of metabolism and development
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