Plant nutrient acquisition is tightly regulated by resource availability and metabolic needs, implying the existence of communication between roots and shoots to ensure their integration at the whole-plant level. Here, we focus on systemic signaling pathways controlling nitrogen (N) nutrition, achieved both by the root import of mineral N and, in legume plants, through atmospheric N fixation by symbiotic bacteria inside dedicated root nodules. We explore features conserved between systemic pathways repressing or enhancing symbiotic N fixation and the regulation of mineral N acquisition by roots, as well as their integration with other environmental factors, such as phosphate, light, and CO2 availability
Legumes have evolved symbiotic interactions with rhizo-bial bacteria to efficiently utilize nitrogen...
Legumes can acquire nitrogen (N) from NO(3)(-), NH(4)(+), and N(2) (through symbiosis with Rhizobium...
Whole plant nutrient signalling involves bidirectional exchange of signal molecules between roots an...
Plant nutrient acquisition is tightly regulated by resource availability and metabolic needs, implyi...
International audienceIn legumes interacting with rhizobia, the formation of symbiotic organs involv...
International audienceIn symbiotic root nodules of legumes, terminally differentiated rhizobia fix a...
Abstract In legumes interacting with rhizobia the formation of symbiotic organs responsible for the ...
Legumes have evolved symbiotic interactions with rhizobial bacteria to efficiently utilize nitrogen....
Legume plants are able to enter into a symbiotic relationship with rhizobia bacteria. This results i...
The Green Revolution was accompanied by a huge increase in the application of fertilizers, particul...
Legume plants are able to enter into a symbiotic relationship with rhizobia bacteria. This results i...
Legumes have evolved symbiotic interactions with rhizo-bial bacteria to efficiently utilize nitrogen...
Legumes can acquire nitrogen (N) from NO(3)(-), NH(4)(+), and N(2) (through symbiosis with Rhizobium...
Whole plant nutrient signalling involves bidirectional exchange of signal molecules between roots an...
Plant nutrient acquisition is tightly regulated by resource availability and metabolic needs, implyi...
International audienceIn legumes interacting with rhizobia, the formation of symbiotic organs involv...
International audienceIn symbiotic root nodules of legumes, terminally differentiated rhizobia fix a...
Abstract In legumes interacting with rhizobia the formation of symbiotic organs responsible for the ...
Legumes have evolved symbiotic interactions with rhizobial bacteria to efficiently utilize nitrogen....
Legume plants are able to enter into a symbiotic relationship with rhizobia bacteria. This results i...
The Green Revolution was accompanied by a huge increase in the application of fertilizers, particul...
Legume plants are able to enter into a symbiotic relationship with rhizobia bacteria. This results i...
Legumes have evolved symbiotic interactions with rhizo-bial bacteria to efficiently utilize nitrogen...
Legumes can acquire nitrogen (N) from NO(3)(-), NH(4)(+), and N(2) (through symbiosis with Rhizobium...
Whole plant nutrient signalling involves bidirectional exchange of signal molecules between roots an...