Genomics of Chloroplasts and Mitochondria pp 323-355 | Cite as
Expression Profiling of Organellar Genes
Summary
Due to their endosymbiotic origin, expression of plastid and mitochondrial genes retains several features of prokaryotes. Nevertheless, plant organelles acquired novel specific traits during evolution. Furthermore, due to the migration of many genes to the nucleus of the host cell, complex anterograde and retrograde signalling pathways evolved to coordinate gene expression in different subcellular compartments. Control of gene expression in plant organelles occurs at the transcriptional and posttranscriptional levels. In this chapter, we analyze the available data concerning the variability shown by both organelle genomes for different steps of gene expression in various genotypes or after environmental and developmental cues. Genotypic variability for the extent of RNA editing or transcript processing and stability in cytoplasmic organelles has been observed in natural populations at the interspecific and intraspecific level or in artificial CMS lines. The role of various plastid genes in global genome expression and chloroplast development has been highlighted in knock-out lines produced by plastid transformation. Significant differences in the transcriptome, editome and translatome have also been found comparing different plastid types in diverse organs or tissues. Similar differences have been found for mitochondrial genomes during the diurnal cycle or between cell suspensions and differentiated leaves. However, the precise level and mechanisms at which these changes are achieved and the signals necessary for their installation are barely understood.
Keywords
Plastid Genome Editing Site Plastid Gene Plant Mitochondrion Mitochondrial Gene ExpressionAbbreviations:
- ACCase
Acetyl-CoA carboxylase;
- AOX
Alternative oxidase;
- CMS
Cytoplasmic male sterility;
- NEP
Nuclear encoded polymerase;
- PEP
Plastid encoded polymerase;
- PPR
Pentatricopeptide repeat;
- PSI
Photosystem I;
- PSII
Photosystem II;
- RNAP
RNA polymerase
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