Legumes, unlike most land plants, can form symbiotic root nodules with nitrogen‐fixing
bacteria to secure nitrogen for growth. The formation of nitrogen‐fixing nodules on legume …

Peptides fulfill a plethora of functions in plant growth, development, and stress responses.
They act as key components of cell-to-cell communication, interfere with signaling and …

Legumes acquire fixed nitrogen (N) from the soil and through endosymbiotic association
with diazotrophic bacteria. However, establishing and maintaining N2-fixing nodules are …

The establishment of symbiotic nitrogen fixation requires the coordination of both nodule
development and infection events. Despite the evolution of a variety of anatomical …

Legumes tightly regulate nodule number to balance the cost of supporting symbiotic rhizobia
with the benefits of nitrogen fixation. C-terminally Encoded Peptides (CEPs) and CLAVATA3 …

As sessile organisms, plants are exposed to diverse abiotic and biotic stresses, and thus
have developed complex signaling mechanisms that orchestrate multiple stress responses …

Leguminous plants can establish symbiotic associations with diazotropic rhizobia to form
nitrogen‐fixating nodules, which are classified as determinate or indeterminate based on the …

Root system architecture (RSA) influences the acquisition of heterogeneously dispersed soil
nutrients. Cytokinin and C-TERMINALLY ENCODED PEPTIDE (CEP) hormones affect RSA …

Plant adaptive potential is critically dependent upon efficient communication and co-
ordination of resource allocation and signalling between above-and below-ground plant …

Post-translationally modified peptides (PMPs) are important regulators of plant growth and
development. They are derived from larger inactive precursors by post-translational …