Abstract In legumes interacting with rhizobia the formation of symbiotic organs responsible for the acquisition of atmospheric nitrogen is depending of the plant nitrogen (N) demand. We discriminated between local and systemic impact of nitrogen on nodule formation using Medicago truncatula plants cultivated in split-root systems. We obtained evidence of the control of nodule formation by whole plant systemic N-satisfaction signaling but obtained little evidence of a local control by mineral nitrogen. We characterized the impact of systemic N signaling on the root transcriptome reprogramming associated to nodule formation. We identified, large genes clusters displaying common expression profiles in response to systemic N signaling enriched ...
Responses of the Medicago truncatula-Sinorhizobium interaction to variation in N2-fixation of the ba...
Legumes have evolved symbiotic interactions with rhizo-bial bacteria to efficiently utilize nitrogen...
Plant nutrient acquisition is tightly regulated by resource availability and metabolic needs, implyi...
Abstract In legumes interacting with rhizobia the formation of symbiotic organs responsible for the ...
International audienceIn legumes interacting with rhizobia, the formation of symbiotic organs involv...
Understanding how plants respond to nitrogen in their environment is crucial for determining how the...
Nodulation is energetically costly to the host: legumes balance the nitrogen demand with the energy ...
International audienceIn symbiotic root nodules of legumes, terminally differentiated rhizobia fix a...
Legumes can acquire nitrogen (N) from NO(3)(-), NH(4)(+), and N(2) (through symbiosis with Rhizobium...
Legumes have evolved symbiotic interactions with rhizobial bacteria to efficiently utilize nitrogen....
We investigated the role of three autoregulation of nodulation (AON) genes in regulating of root and...
International audienceAdaptation of Medicago truncatula to local nitrogen (N) limitation was investi...
We tested whether a gene regulating nodule number in Medicago truncatula, Super Numeric Nodules (SUN...
Responses of the Medicago truncatula-Sinorhizobium interaction to variation in N2-fixation of the ba...
Legumes have evolved symbiotic interactions with rhizo-bial bacteria to efficiently utilize nitrogen...
Plant nutrient acquisition is tightly regulated by resource availability and metabolic needs, implyi...
Abstract In legumes interacting with rhizobia the formation of symbiotic organs responsible for the ...
International audienceIn legumes interacting with rhizobia, the formation of symbiotic organs involv...
Understanding how plants respond to nitrogen in their environment is crucial for determining how the...
Nodulation is energetically costly to the host: legumes balance the nitrogen demand with the energy ...
International audienceIn symbiotic root nodules of legumes, terminally differentiated rhizobia fix a...
Legumes can acquire nitrogen (N) from NO(3)(-), NH(4)(+), and N(2) (through symbiosis with Rhizobium...
Legumes have evolved symbiotic interactions with rhizobial bacteria to efficiently utilize nitrogen....
We investigated the role of three autoregulation of nodulation (AON) genes in regulating of root and...
International audienceAdaptation of Medicago truncatula to local nitrogen (N) limitation was investi...
We tested whether a gene regulating nodule number in Medicago truncatula, Super Numeric Nodules (SUN...
Responses of the Medicago truncatula-Sinorhizobium interaction to variation in N2-fixation of the ba...
Legumes have evolved symbiotic interactions with rhizo-bial bacteria to efficiently utilize nitrogen...
Plant nutrient acquisition is tightly regulated by resource availability and metabolic needs, implyi...