International audienceIn the most studied rhizobium-legume interactions, the host plant supplies the symbiont with homocitrate, an essential co-factor of the nitrogenase enzyme complex, via the expression of a nodule-specific homocitrate synthase FEN1. Photosynthetic bradyrhizobia interacting with Nod factor (NF) dependent and NF-independent Aeschynomene legumes are able to synthesize homocitrate themselves as they contain a nifV gene encoding a homocitrate synthase. Here, we show that in the model strain ORS285, nifV is required for free-living and symbiotic dinitrogen fixation with NF-independent Aeschynomene species. In contrast, in symbiosis with NF-dependent Aeschynomene species, the nifV requirement for efficient nitrogen fixation was...
Biological nitrogen fixation is vital to nutrient cycling in the biosphere and is the major route by...
International audienceRhizobia and legumes are able to interact in a symbiotic way leading to the de...
Homocitrate is an essential component of the iron-molybdenum cofactor of nitrogenase, the bacterial ...
International audienceIn the most studied rhizobium-legume interactions, the host plant supplies the...
International audienceThe occurrence of alternative Nod factor (NF)-independent symbiosis between le...
Nodule formation in legume plants was assumed to be exclusively initiated by the binding of bacteria...
The occurrence of alternative Nod factor (NF)-independent symbiosis between legumes and rhizobia was...
There was a long-held dogma that the synthetised of Nod factors (NF) by rhizobia was absolutely requ...
The symbiotic nitrogen fixation (SNF) with legumes is the primary source of biologically fixed nitro...
Symbiotic nitrogen fixation between legumes and rhizobia involves a coordinated expression of many p...
In absence of sufficient quantities of reduced forms of nitrogen, most plants of the Leguminosae fam...
Photosynthetic Bradyrhizobium strain ORS285 forms nitrogen-fixing nodules on the roots and stems of ...
The most studied plant / bacteria symbiosis is the legume-rhizobia interaction which results in the ...
Biological nitrogen fixation is vital to nutrient cycling in the biosphere and is the major route by...
Biological nitrogen fixation is vital to nutrient cycling in the biosphere and is the major route by...
International audienceRhizobia and legumes are able to interact in a symbiotic way leading to the de...
Homocitrate is an essential component of the iron-molybdenum cofactor of nitrogenase, the bacterial ...
International audienceIn the most studied rhizobium-legume interactions, the host plant supplies the...
International audienceThe occurrence of alternative Nod factor (NF)-independent symbiosis between le...
Nodule formation in legume plants was assumed to be exclusively initiated by the binding of bacteria...
The occurrence of alternative Nod factor (NF)-independent symbiosis between legumes and rhizobia was...
There was a long-held dogma that the synthetised of Nod factors (NF) by rhizobia was absolutely requ...
The symbiotic nitrogen fixation (SNF) with legumes is the primary source of biologically fixed nitro...
Symbiotic nitrogen fixation between legumes and rhizobia involves a coordinated expression of many p...
In absence of sufficient quantities of reduced forms of nitrogen, most plants of the Leguminosae fam...
Photosynthetic Bradyrhizobium strain ORS285 forms nitrogen-fixing nodules on the roots and stems of ...
The most studied plant / bacteria symbiosis is the legume-rhizobia interaction which results in the ...
Biological nitrogen fixation is vital to nutrient cycling in the biosphere and is the major route by...
Biological nitrogen fixation is vital to nutrient cycling in the biosphere and is the major route by...
International audienceRhizobia and legumes are able to interact in a symbiotic way leading to the de...
Homocitrate is an essential component of the iron-molybdenum cofactor of nitrogenase, the bacterial ...