
Summary Plant NLR genes encode sensitive immune receptors that can mediate the specific recognition of pathogen avirulence effectors and activate a strong defence response, termed effector‐triggered immunity. The expression of NLRs requires strict regulation, as their ability to trigger immunity is dependent on their dose, and overexpression of NLRs results in autoimmunity and massive fitness costs. An elaborate interplay of different mechanisms controlling NLR transcript levels allows plants to maximize their defence capacity, whilst limiting negative impact on their fitness. Global suppression of NLR transcripts may be a prerequisite for the fast evolution of new NLR variants and the expansion of this gene family. Here, we summarize recent progress made towards a comprehensive understanding of NLR transcript‐level expression control. Multiple mechanistic steps, including transcription as well as co‐/post‐transcriptional processing and transcript turn‐over, contribute to balanced base levels of NLR transcripts and allow for dynamic adjustments to defence situations.
nonsense-mediated decay, Crop and Pasture Production, Evolution, Messenger, Plant Biology & Botany, Plant Biology, Evolutionary biology, NLR Proteins, Genes, Plant, Microbiology, Evolution, Molecular, alternative splicing, small RNAs, Gene Expression Regulation, Plant, Genetics, transcriptional regulation, RNA, Messenger, Plant biology, alternative polyadenylation, Molecular, Plant, Biological Sciences, Chromatin, Alternative Splicing, Gene Expression Regulation, Genes, RNA, Immunization, plant disease resistance genes, post-transcriptional regulation
nonsense-mediated decay, Crop and Pasture Production, Evolution, Messenger, Plant Biology & Botany, Plant Biology, Evolutionary biology, NLR Proteins, Genes, Plant, Microbiology, Evolution, Molecular, alternative splicing, small RNAs, Gene Expression Regulation, Plant, Genetics, transcriptional regulation, RNA, Messenger, Plant biology, alternative polyadenylation, Molecular, Plant, Biological Sciences, Chromatin, Alternative Splicing, Gene Expression Regulation, Genes, RNA, Immunization, plant disease resistance genes, post-transcriptional regulation
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