Search results for "plant nutrition"

showing 10 items of 23 documents

The interplay betweenPinus sylvestris, its root hemiparasite,Melampyrum pratense, and ectomycorrhizal fungi: Influences on plant growth and reproduct…

2000

Despite the extensive literature on mutual interactions between plants and mycorrhizal fungi, and host plants and parasitic plants, little is known about the outcomes of interactions when the three...

0106 biological sciences010506 paleontologyBiomass (ecology)Ecologybiologymedia_common.quotation_subjectfungifood and beveragesbiology.organism_classification010603 evolutionary biology01 natural sciencesEctosymbiosisEctomycorrhizaAgronomyMycorrhizal fungiBotanyMelampyrum pratenseReproductionPlant nutritionEcology Evolution Behavior and Systematics0105 earth and related environmental sciencesmedia_commonWoody plantÉcoscience
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Long-term effects of no tillage treatment on soil N availability, N uptake, and 15N-fertilizer recovery of durum wheat differ in relation to crop seq…

2016

Abstract No tillage (NT) soil management has largely been promoted because of its potential to generate both economic and environmental benefits. However, it often leads to reductions in crop yield and quality, which in many cases have been attributed to the effects this technique has on the nitrogen (N) dynamics in the soil–plant system. This 2-year study, performed within a long-term experiment in which NT was continuously applied for over 15 years, aimed to verify whether and to what extent the use of NT affects soil N availability, recovery of 15 N-labeled fertilizer, and N use efficiency (NUE) and its components (N uptake efficiency, NUpE; N utilization efficiency, NUtE). Durum wheat w…

0106 biological sciences15N-fertilizer recoveryMediterranean environmentSoil ScienceBiologyengineering.material01 natural sciencesCropSoil managementNUENUpENUtEConventional tillageConventional tillageCrop yieldNo tillage04 agricultural and veterinary sciencesCrop rotationSettore AGR/02 - Agronomia E Coltivazioni ErbaceeTillageAgronomy040103 agronomy & agricultureengineering0401 agriculture forestry and fisheriesFertilizerPlant nutritionAgronomy and Crop Science010606 plant biology & botany
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The rhizosphere of mycorrhizal plants

2002

Providing that appropriate carbon substrates are available, microbial communities are able to develop a range of activities which are crucial in maintaining a biological balance in soil (Bowen and Rovira 1999), a key issue for the sustainability of either natural ecosystems or agroecosystems (Kennedy and Smith 1995). Soil-borne microbes have a particular microhabitat in which to flourish. In particular, they are bound to the surface of soil particles or found in soil aggregates, while others interact specifically with the plant root system (Glick 1995). The root-soil interface is actually a dynamic changing environment, a microcosm where microorganisms, plant roots and soil constituents int…

0106 biological sciencesAgroecosystemRhizosphereEcology[SDV]Life Sciences [q-bio]Bulk soilMycorrhizosphere04 agricultural and veterinary sciences15. Life on landBiologyRhizobacteria01 natural sciencesSoil quality[SDV] Life Sciences [q-bio]Botany040103 agronomy & agriculture0401 agriculture forestry and fisheriesMicrocosmPlant nutritionComputingMilieux_MISCELLANEOUSCONTROLE DE MALADIES010606 plant biology & botany
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Impacts of arbuscular mycorrhizal fungi on nutrient uptake, N2 fixation, N transfer, and growth in a wheat/faba bean intercropping system

2019

Arbuscular mycorrhizal fungi (AMF) can play a key role in natural and agricultural ecosystems affecting plant nutrition, soil biological activity and modifying the availability of nutrients by plants. This research aimed at expanding the knowledge of the role played by AMF in the uptake of macro- and micronutrients and N transfer (using a 15 N stem-labelling method) in a faba bean/wheat intercropping system. It also investigates the role of AMF in biological N fixation (using the natural isotopic abundance method) in faba bean grown in pure stand and in mixture. Finally, it examines the role of AMF in driving competition and facilitation between faba bean and wheat. Durum wheat and faba bea…

0106 biological sciencesPlant Roots01 natural sciencesSoilNutrientMycorrhizaeVegetablesBiomassTriticummedia_commonMultidisciplinaryN2 biological fixationQREukaryotafood and beveragesAgriculturePhosphorusIntercropping04 agricultural and veterinary sciencesPlantsAgricultural MethodsLegumesVicia fabaAMF symbiosiSettore AGR/02 - Agronomia E Coltivazioni ErbaceeWheatNitrogen fixationMedicineResearch ArticleCrops AgriculturalNitrogenBeansSoil biologymedia_common.quotation_subjectScienceCropsBiologyCompetition (biology)SymbiosisNitrogen FixationGrassesSymbiosisEcosystemInoculationfungiOrganismsFungiBiology and Life SciencesNutrientsbiology.organism_classificationCereal-legume intercroppingSpecies InteractionsIntercroppingAgronomy040103 agronomy & agriculture0401 agriculture forestry and fisheriesPlant nutritionCrop ScienceCereal Crops010606 plant biology & botany
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Multitrophic interactions in the rhizosphere Rhizosphere microbiology: at the interface of many disciplines and expertises.

2008

The rhizosphere – the soil compartment influenced by the root, including the root itself – is the most-active microbial habitat in soils. Indeed, the release by plant roots of a significant part of their photosynthates promotes microbial abundance and activities in the rhizosphere. This investment made by plants is paid back by microbial functions, which contribute to plant nutrition and protection against soil-borne diseases. Indeed, rhizosphere microorganisms play a major role in plant growth and health and, …

0106 biological sciencesPlant growthMICROBIOLOGYMicroorganismPLANT ZOOLOGYBiology01 natural sciencesApplied Microbiology and BiotechnologyPlant RootsBotanyMICROBIAL COMMUNITIESRELATION PLANTE-MICROORGANISMEMolecular BiologyComputingMilieux_MISCELLANEOUSEcosystemPlant Physiological PhenomenaSoil Microbiology2. Zero hungerRhizosphereMicroscopyEcologyPlant rootsEcologyfungiSignificant partfood and beveragesRHIZOSPHERE04 agricultural and veterinary sciencesPLANT PATHOLOGY15. Life on landPlantsPLANT PHYSIOLOGY[SDV.MP]Life Sciences [q-bio]/Microbiology and ParasitologySoil water040103 agronomy & agriculture0401 agriculture forestry and fisheriesPhyllospherePlant nutrition010606 plant biology & botanyFEMS microbiology ecology
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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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Reciprocal interactions between plants and fluorescent pseudomonads in relation to iron in the rhizosphere

2013

SPE EA Section 15 : Engineering the rhizosphere: The "biased rhizosphere" concept Ouvrage en 2 volumes Résumé du livre : Molecular Microbial Ecology of the Rhizosphere covers current knowledge on the molecular basis of plant-microbe interactions in the rhizosphere. Also included in the book are both reviews and research-based chapters describing experimental materials and methods. Edited by a leader in the field, with contributions from authors around the world, Molecular Microbial Ecology of the Rhizosphere brings together the most up-to-date research in this expanding area, and will be a valuable resource for molecular microbiologists and plant soil scientists, as well as upper level stud…

0106 biological sciencesSiderophore[ SDV.BV ] Life Sciences [q-bio]/Vegetal Biologysiderophoremedia_common.quotation_subjectMicroorganismF60 - Physiologie et biochimie végétaleplant nutritionBiology01 natural sciencesCompetition (biology)03 medical and health sciencesironPseudomonasBotany[SDV.BV]Life Sciences [q-bio]/Vegetal Biologymedia_commonMutualism (biology)0303 health sciencesRhizosphere030306 microbiologyP34 - Biologie du solBioavailabilitySoil waterplant healthPlant nutrition010606 plant biology & botany
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Plant growth-promoting rhizobacteria and root system functioning.

2013

International audience; The rhizosphere supports the development and activity of a huge and diversified microbial community, including microorganisms capable to promote plant growth. Among the latter, plant growth-promoting rhizobacteria (PGPR) colonize roots of monocots and dicots, and enhance plant growth by direct and indirect mechanisms. Modification of root system architecture by PGPR implicates the production of phytohormones and other signals that lead, mostly, to enhanced lateral root branching and development of root hairs. PGPR also modify root functioning, improve plant nutrition and influence the physiology of the whole plant. Recent results provided first clues as to how PGPR s…

0106 biological sciencesfunctional group[SDV]Life Sciences [q-bio]plant nutritionPlant ScienceReview ArticleRoot hairBiologylcsh:Plant culturephytohormoneRhizobacteria01 natural sciences03 medical and health sciencesplant-PGPR cooperationplant-PGPR cooperation;rhizo-microbiome;rhizosphere;phytohormone;plant nutrition;ISR;functional groupBotanylcsh:SB1-1110Plant breedingISRFunctional group (ecology)2. Zero hungerAbiotic component0303 health sciencesRhizosphereBiotic component030306 microbiologybusiness.industryfungifood and beveragesrhizo-microbiome15. Life on landBiotechnologyLateral root branchingbusinessrhizosphere010606 plant biology & botanyFrontiers in plant science
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Effect of Molybdenum Rate on Yield and Quality of Lettuce, Escarole, and Curly Endive Grown in a Floating System

2018

Molybdenum (Mo) is required in enzymes involved in a number of different metabolic processes, and is crucial for the survival of plants and animals. The influence of nutrient solutions containing four levels of molybdenum (0, 0.5, 1.5, and 3.0 &micro

0106 biological sciencesinorganic chemicalsvitamin CSettore AGR/04 - Orticoltura E Floricoltura01 natural scienceslcsh:Agriculturechemistry.chemical_compoundHuman fertilizationNutrientmolybdenumNitratenitrateleafy vegetablesHydroponicChemistryCrop yieldLeafy vegetablelcsh:Shydroponics04 agricultural and veterinary sciencesAscorbic acidHydroponicsHorticultureenzymes and coenzymes (carbohydrates)Plant morphology040103 agronomy & agriculture0401 agriculture forestry and fisheriesbacteriaPlant nutritionAgronomy and Crop Science010606 plant biology & botanyAgronomy
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Chapter 4 Iron Dynamics in the Rhizosphere

2008

Abstract Iron is an essential micronutrient for most organisms due to its role in fundamental metabolic processes. In cultivated soils, soil solution iron is mostly oxidized [Fe(III) species] unless local anoxic conditions develop. The concentration of these Fe(III) species is small in soil solution due to the low solubility of ferric oxides, oxyhydroxides, and hydroxides, which is minimal at neutral and alkaline pH. In the rhizosphere, iron concentration in the soil solution is even lower because of its uptake by aerobic organisms (plants and microorganisms), leading to a high level of competition for Fe(III). In order to face iron competition, these organisms have evolved active uptake st…

0303 health sciencesRhizosphereMicroorganismmedia_common.quotation_subject04 agricultural and veterinary sciences15. Life on landBiologyMicronutrientAnoxic watersCompetition (biology)03 medical and health sciences13. Climate actionBotanySoil water040103 agronomy & agriculturemedicine0401 agriculture forestry and fisheriesFerricPlant nutrition030304 developmental biologymedicine.drugmedia_common
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