Search results for "Arbuscular Mycorrhizal Symbiosi"

showing 9 items of 9 documents

Arbuscular mycorrhizal symbiosis mitigates the negative effects of salinity on durum wheat

2017

Arbuscular mycorrhizal (AM) symbiosis is generally considered to be effective in ameliorating the plant tolerance to salt stress. Unfortunately, the comprehension of the mechanisms implicated in salinity stress alleviation by AM symbiosis is far from being complete. Thus, an experiment was performed by growing durum wheat (Triticum durum Desf.) plants under salt-stress conditions to evaluate the influence of AM symbiosis on both the plant growth and the regulation of a number of genes related to salt stress and nutrient uptake. Durum wheat plants were grown outdoors in pots in absence or in presence of salt stress and with or without AM fungi inoculation. The inoculum consisted of a mixture…

0106 biological sciences0301 basic medicineRhizophagus irregularisSalinityLeavesGene Expressionlcsh:MedicinePlant SciencePlant RootsPolymerase Chain ReactionPhysical Chemistry01 natural sciencesNutrientMycorrhizaePlant Resistance to Abiotic Stresslcsh:ScienceTriticumBiomass (ecology)MultidisciplinaryEcologyPlant Anatomyfood and beveragesSalt TolerancePlantsSettore AGR/02 - Agronomia E Coltivazioni ErbaceeChemistryPlant PhysiologyPhysical SciencesWheatSymbiosiResearch ArticleBiology03 medical and health sciencesSymbiosisSettore AGR/07 - Genetica AgrariaPlant-Environment InteractionsBotanyGeneticsPlant DefensesGene RegulationGrassesSymbiosisBiochemistry Genetics and Molecular Biology (all)InoculationGene Expression ProfilingPlant EcologyEcology and Environmental Scienceslcsh:RfungiOrganismsFungiBiology and Life SciencesPlant RootPlant Pathologybiology.organism_classificationSporeSalinitySpecies Interactions030104 developmental biologyAgricultural and Biological Sciences (all)Chemical PropertiesArbuscular mycorrhizal symbiosislcsh:QSalt-Tolerance010606 plant biology & botanyPLOS ONE
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Mycorrhizae differentially influence the transfer of nitrogen among associated plants and their competitive relationships

2021

Abstract The formation of a common mycorrhizal network among roots of different plant species growing close to each other can influence plant community dynamics, regulating plant relationships through the differential transfer of nutrients from one plant to another. However, knowledge of the mechanisms that regulate this process is poor. Here we quantify the contribution of arbuscular mycorrhizae to the transfer of N among heterospecific plants growing adjacent to each other and examine whether the differential transfer of N within the plant community via mycorrhizae can alter competitive relationships among plant species. Plants of four species (wheat, pea, flax, and chicory) were grown in…

0106 biological sciencesPlant-plant interaction15N labellingMicroorganismSoil Sciencechemistry.chemical_elementBiology01 natural sciencesNutrientSymbiosisBotanyMycorrhizal networkCommon Mycorrhizal NetworkEcologyArbuscular Mycorrhizal SymbiosiNitrogen transferPlant community04 agricultural and veterinary sciencesAgricultural and Biological Sciences (miscellaneous)NitrogenSettore AGR/02 - Agronomia E Coltivazioni Erbaceechemistry040103 agronomy & agriculturePlant species0401 agriculture forestry and fisheriesArbuscular mycorrhizal010606 plant biology & botany
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Transcriptional responses of Medicago truncatula upon sulfur deficiency stress and arbuscular mycorrhizal symbiosis

2014

International audience; Sulfur plays an essential role in plants' growth and development and in their response to various abiotic and biotic stresses despite its leachability and its very low abundance in the only form that plant roots can uptake (sulfate). It is part of amino acids, glutathione (GSH), thiols of proteins and peptides, membrane sulfolipids, cell walls and secondary products, so reduced availability can drastically alter plant growth and development. The nutritional benefits of symbiotic interactions can help the plant in case of S deficiency. In particular the arbuscular mycorrhizal (AM) interaction improves N, P and S plant nutrition, but the mechanisms behind these exchang…

0106 biological sciencesRhizophagus irregularisS deficiencyTranscription Genetic[SDV]Life Sciences [q-bio]FungusPlant Sciencelcsh:Plant culture01 natural sciencesAM interactionrhizophagus irregularissulfur deficiencyTranscriptomeCell wall03 medical and health sciencesBotanymedicago truncatula;transcriptome;S deficiency;AM interaction;rhizophagus irregularis[SDV.BV]Life Sciences [q-bio]/Vegetal Biologylcsh:SB1-1110Original Research ArticleGene030304 developmental biology2. Zero hungerAbiotic component0303 health sciencescarencebiologyarbuscular mycorrhizafungifood and beveragesmedicago truncatulabiology.organism_classificationMedicago truncatulaArbuscular Mycorrhizal Symbiosis[SDE]Environmental SciencesPlant nutritionnutrition soufréetranscriptome010606 plant biology & botany
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Medicago truncatula

2012

In plants, long distance transport of sugars from photosynthetic source leaves to sink organs comprises different crucial steps depending on the species and organ types. Sucrose, the main carbohydrate for long distance transport is synthesized in the mesophyll and then loaded into the phloem. After long distance transport through the phloem vessels, sucrose is finally unloaded towards sink organs. Alternatively, sugar can also be transferred to non‐plant sinks and plant colonization by heterotrophic organisms increases the sink strength and creates an additional sugar demand for the host plant. These sugar fluxes are coordinated by transport systems. Main sugar transporters in plants compri…

[SDE] Environmental Sciences570Sucrose transporterMonosaccharide transporterMST[SDV.SA] Life Sciences [q-bio]/Agricultural scienceschampignonfungifood and beverages500Sugar partitioningArbuscular mycorrhizal symbiosisSUTsugar transport sucrose transporter SUT monosaccharide transporter MST sugar partitioning Medicago truncatula Glomus intraradices arbuscular mycorrhizal symbiosis.Pas de mot-clé en français[SDV] Life Sciences [q-bio]sucreFOS: Biological sciencesSugar transportMedicago truncatulaGlomus intraradices[SDV.BV] Life Sciences [q-bio]/Vegetal Biologyluzerne tronquée
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Molecular and agronomic responses to soil inoculation with plant-growth promoting rhizobacteria and arbuscular mycorrhizae in Triticum durum

2012

Plant-growth promoting rhizobacteria (PGPR) and arbuscular mycorrhizal (AM) fungi contribute to plant nutrient uptake by increasing the availability of nutrients and the root adsorbing surface. However, the molecular mechanisms of plant responses to these associations are still under-investigated. Gene expression analysis could lead to the identification of biomarkers usable to early select genotypes for an increased nutrient uptake efficiency. The main objective of this study was to determine the effects of these associations on plant total biomass and grain yield in durum wheat (cv. Anco Marzio). Secondly, we aimed to analyze the expression pattern of key genes involved in nutrient uptake…

gene expression durum wheat arbuscular mycorrhizal symbiosis nitrogen and phosphorus uptakeSettore AGR/07 - Genetica AgrariaSettore AGR/02 - Agronomia E Coltivazioni Erbacee
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Effects of arbuscular mycorrhizal symbiosis on the nitrogen uptake of three durum wheat genotypes from two different organic sources

2012

plant genotypearbuscular mycorrhizal symbiosi15N-Nitrogen recoveryorganic matterSettore AGR/02 - Agronomia E Coltivazioni Erbacee
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Can arbuscular mycorrhizal fungi enhance plant nitrogen capture from organic matter added to soil?

2012

soil proteinasesarbuscular mycorrhizal symbiosi15N-Nitrogen recoveryorganic matterSettore AGR/02 - Agronomia E Coltivazioni Erbacee
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The Lotus japonicus ROP3 Is Involved in the Establishment of the Nitrogen-Fixing Symbiosis but Not of the Arbuscular Mycorrhizal Symbiosis

2021

Legumes form root mutualistic symbioses with some soil microbes promoting their growth, rhizobia, and arbuscular mycorrhizal fungi (AMF). A conserved set of plant proteins rules the transduction of symbiotic signals from rhizobia and AMF in a so-called common symbiotic signaling pathway (CSSP). Despite considerable efforts and advances over the past 20 years, there are still key elements to be discovered about the establishment of these root symbioses. Rhizobia and AMF root colonization are possible after a deep cell reorganization. In the interaction between the model legume Lotus japonicus and Mesorhizobium loti, this reorganization has been shown to be dependent on a SCAR/Wave-like signa…

symbiotic nitrogen fixationarbuscular mycorrhizal symbiosisbiologyfungiLotusLotus japonicusPlant culturerho-GTPasePlant Sciencebiology.organism_classificationPhenotypeROPSB1-1110RhizobiaSymbiosisLotus japonicusBotanyNitrogen fixationColonizationGeneOriginal ResearchFrontiers in Plant Science
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Effect of soil management and weed controlm on the diversity and establishment of arbuscular mycorrhizal symbiosis colonisation in Mediterranean clim…

2006

International audience

weed controlm[SDV] Life Sciences [q-bio][SDV]Life Sciences [q-bio]Mediterranean climatearbuscular mycorrhizal symbiosis colonisationsoil managementComputingMilieux_MISCELLANEOUS
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