Plants are engaged in a continuous co-evolutionary struggle for dominance with their
pathogens. The outcomes of these interactions are of particular importance to human …

Pathogenicity of most Gram-negative plant-pathogenic bacteria depends on the type III
secretion (T3S) system, which translocates bacterial effector proteins into plant cells. Type III …

Both plants and animals rely on nucleotide-binding domain and leucine-rich repeat-
containing (NLR) proteins to respond to invading pathogens and activate immune …

Plant resistance proteins of the class of nucleotide‐binding and leucine‐rich repeat domain
proteins (NB‐LRR s) are immune sensors which recognize pathogen‐derived molecules …

Durable crop disease resistance is an essential component of global food security.
Continuous pathogen evolution leads to a breakdown of resistance and there is a pressing …

In plants and animals, the NLR family of receptors perceives non-self and modified-self
molecules inside host cells and mediates innate immune responses to microbial pathogens …

In plants and animals, nucleotide-binding domain and leucine-rich repeats (NLR)-containing
proteins play pivotal roles in innate immunity. Despite their similar biological functions and …

Many plant disease resistance (R) proteins belong to the family of nucleotide-binding-
leucine rich repeat (NB-LRR) proteins. NB-LRRs mediate recognition of pathogen-derived …

Plants and animals have evolved structurally related innate immune sensors, designated
NLRs, to detect intracellular nonself molecules. NLRs are modular, consisting of N-terminal …

In plants, many of the innate immune receptors or disease resistance (R) proteins contain a
NB-LRR (Nucleotide-binding site, Leucine-rich repeat) structure. The recent findings …