The central dogma in biology defines the flow of genetic information from DNA to RNA to
protein. Accordingly, RNA molecules generally accurately follow the sequences of the genes …

RNA editing by cytidine (C) to uridine (U) conversions is widespread in plant mitochondria
and chloroplasts. In some plant taxa,“reverse” U-to-C editing also occurs. However, to date …

Background Suaeda glauca (S. glauca) is a halophyte widely distributed in saline and sandy
beaches, with strong saline-alkali tolerance. It is also admired as a landscape plant with …

The genomes in the two energy-converting organelles of plant cells, chloroplasts and
mitochondria, contain numerous 'errors' that are corrected at the level of RNA transcript …

RNA editing converting cytidines into uridines is a hallmark of gene expression in land plant
chloroplasts and mitochondria. Pentatricopeptide repeat (PPR) proteins have a key role in …

Background Bupleurum chinense (B. chinense) is a plant that is widely distributed globally
and has strong pharmacological effects. Though the chloroplast (cp) genome of B. chinense …

In land plant mitochondria, C-to-U RNA editing converts cytidines into uridines at highly
specific RNA positions called editing sites. This editing step is essential for the correct …

RNA editing processes are strikingly different in animals and plants. Up to thousands of
specific cytidines are converted into uridines in plant chloroplasts and mitochondria whereas …

Hornworts are crucial to understand the phylogeny of early land plants. The emergence of
'reverse'U‐to‐C RNA editing accompanying the widespread C‐to‐U RNA editing in plant …

RNA-binding proteins play integral roles in the regulation of essential processes in cells and
as such are attractive targets for engineering to manipulate gene expression at the RNA …