Azospirillum and arbuscular mycorrhizal colonization enhance rice growth and physiological traits under well - watered and drought conditions

The response of rice plants to inoculation with an arbuscular mycorrhizal [AM] fungus, Azospirillum brasilense, or combination of both microorganisms, was assayed under well-watered or drought stress conditions. Water deficit treatment was imposed by reducing the amount of water added, but AM plants, with a significantly higher biomass, received the same amount of water as non-AM plants, with a poor biomass. Thus, the water stress treatment was more severe for AM plants than for non-AM plants. The results showed that AM colonization significantly enhanced rice growth under both water conditions, although the greatest rice development was reached in plants dually inoculated under well-watered conditions. Water level did not affect the efficiency of photosystem II, but both AM and A. brasilense inoculations increased this value. AM colonization increased stomatal conductance, particularly when associated with A. brasilense, which enhanced this parameter by 80 percent under drought conditions and by 35 percent under well-watered conditions as compared to single AM plants. Exposure of AM rice to drought stress decreased the high levels of glutathione that AM plants exhibited under well-watered conditions, while drought had no effect on the ascorbate content. The decrease of glutathione content in AM plants under drought stress conditions led to enhance lipid peroxidation. On the other hand, inoculation with the AM fungus itself increased ascorbate and proline as protective compounds to cope with the harmful effects of water limitation. Inoculation with A. brasilense also enhanced ascorbate accumulation, reaching a similar level as in AM plants. These results showed that, in spite of the fact that drought stress imposed by AM treatments was considerably more severe than non-AM treatments, rice plants benefited not only from the AM symbiosis but also from A. brasilense root colonization, regardless of the watering level. However, the beneficial effects of A. brasilense on most of the physiological and biochemical traits of rice plants were only clearly visible when the plants were mycorrhized. This microbial consortium was effective for rice plants as an acceptable and ecofriendly technology to improve plant performance and development.

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Main Authors: Ruíz Sánchez, Michel, Armada, Elisabet, Muñoz, Yaumara, García de Salamone, Inés Eugenia, Aroca, Ricardo, Ruíz Lozano, Juan Manuel, Azcón, Rosario
Format: Texto biblioteca
Language:eng
Subjects:ARBUSCULAR MYCORRHIZAL SYMBIOSIS, AZOSPIRILLUM, DROUGHT, PGPR, ANTIOXIDANT, PROLINE, WATER, BIOMASS, DEHYDRATION, EVAPOTRANSPIRATION, GROWTH, DEVELOPMENT AND AGING, METABOLISM, MICROBIOLOGY, MYCORRHIZA, OXIDATIVE STRESS, PHOTOSYNTHESIS, PHYSIOLOGY, PLANT LEAF, PLANT ROOT, RANDOMIZATION, RICE, SOIL, ANTIOXIDANTS, MYCORRHIZAE, ORYZA SATIVA, PLANT LEAVES, PLANT ROOTS, PLANT TRANSPIRATION, RANDOM ALLOCATION, SUNLIGHT, SYMBIOSIS, ARBUSCULAR, AZOSPIRILLUM BRASILENSE, FUNGI,
Online Access:http://ceiba.agro.uba.ar/cgi-bin/koha/opac-detail.pl?biblionumber=46615
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id KOHA-OAI-AGRO:46615
record_format koha
institution UBA FA
collection Koha
country Argentina
countrycode AR
component Bibliográfico
access En linea
En linea
databasecode cat-ceiba
tag biblioteca
region America del Sur
libraryname Biblioteca Central FAUBA
language eng
topic ARBUSCULAR MYCORRHIZAL SYMBIOSIS
AZOSPIRILLUM
DROUGHT
PGPR
ANTIOXIDANT
PROLINE
WATER
BIOMASS
DEHYDRATION
EVAPOTRANSPIRATION
GROWTH, DEVELOPMENT AND AGING
METABOLISM
MICROBIOLOGY
MYCORRHIZA
OXIDATIVE STRESS
PHOTOSYNTHESIS
PHYSIOLOGY
PLANT LEAF
PLANT ROOT
RANDOMIZATION
RICE
SOIL
ANTIOXIDANTS
AZOSPIRILLUM
DEHYDRATION
MYCORRHIZAE
ORYZA SATIVA
OXIDATIVE STRESS
PHOTOSYNTHESIS
PLANT LEAVES
PLANT ROOTS
PLANT TRANSPIRATION
RANDOM ALLOCATION
SOIL
SUNLIGHT
SYMBIOSIS
ARBUSCULAR
AZOSPIRILLUM BRASILENSE
FUNGI
ARBUSCULAR MYCORRHIZAL SYMBIOSIS
AZOSPIRILLUM
DROUGHT
PGPR
ANTIOXIDANT
PROLINE
WATER
BIOMASS
DEHYDRATION
EVAPOTRANSPIRATION
GROWTH, DEVELOPMENT AND AGING
METABOLISM
MICROBIOLOGY
MYCORRHIZA
OXIDATIVE STRESS
PHOTOSYNTHESIS
PHYSIOLOGY
PLANT LEAF
PLANT ROOT
RANDOMIZATION
RICE
SOIL
ANTIOXIDANTS
AZOSPIRILLUM
DEHYDRATION
MYCORRHIZAE
ORYZA SATIVA
OXIDATIVE STRESS
PHOTOSYNTHESIS
PLANT LEAVES
PLANT ROOTS
PLANT TRANSPIRATION
RANDOM ALLOCATION
SOIL
SUNLIGHT
SYMBIOSIS
ARBUSCULAR
AZOSPIRILLUM BRASILENSE
FUNGI
spellingShingle ARBUSCULAR MYCORRHIZAL SYMBIOSIS
AZOSPIRILLUM
DROUGHT
PGPR
ANTIOXIDANT
PROLINE
WATER
BIOMASS
DEHYDRATION
EVAPOTRANSPIRATION
GROWTH, DEVELOPMENT AND AGING
METABOLISM
MICROBIOLOGY
MYCORRHIZA
OXIDATIVE STRESS
PHOTOSYNTHESIS
PHYSIOLOGY
PLANT LEAF
PLANT ROOT
RANDOMIZATION
RICE
SOIL
ANTIOXIDANTS
AZOSPIRILLUM
DEHYDRATION
MYCORRHIZAE
ORYZA SATIVA
OXIDATIVE STRESS
PHOTOSYNTHESIS
PLANT LEAVES
PLANT ROOTS
PLANT TRANSPIRATION
RANDOM ALLOCATION
SOIL
SUNLIGHT
SYMBIOSIS
ARBUSCULAR
AZOSPIRILLUM BRASILENSE
FUNGI
ARBUSCULAR MYCORRHIZAL SYMBIOSIS
AZOSPIRILLUM
DROUGHT
PGPR
ANTIOXIDANT
PROLINE
WATER
BIOMASS
DEHYDRATION
EVAPOTRANSPIRATION
GROWTH, DEVELOPMENT AND AGING
METABOLISM
MICROBIOLOGY
MYCORRHIZA
OXIDATIVE STRESS
PHOTOSYNTHESIS
PHYSIOLOGY
PLANT LEAF
PLANT ROOT
RANDOMIZATION
RICE
SOIL
ANTIOXIDANTS
AZOSPIRILLUM
DEHYDRATION
MYCORRHIZAE
ORYZA SATIVA
OXIDATIVE STRESS
PHOTOSYNTHESIS
PLANT LEAVES
PLANT ROOTS
PLANT TRANSPIRATION
RANDOM ALLOCATION
SOIL
SUNLIGHT
SYMBIOSIS
ARBUSCULAR
AZOSPIRILLUM BRASILENSE
FUNGI
Ruíz Sánchez, Michel
Armada, Elisabet
Muñoz, Yaumara
García de Salamone, Inés Eugenia
Aroca, Ricardo
Ruíz Lozano, Juan Manuel
Azcón, Rosario
Azospirillum and arbuscular mycorrhizal colonization enhance rice growth and physiological traits under well - watered and drought conditions
description The response of rice plants to inoculation with an arbuscular mycorrhizal [AM] fungus, Azospirillum brasilense, or combination of both microorganisms, was assayed under well-watered or drought stress conditions. Water deficit treatment was imposed by reducing the amount of water added, but AM plants, with a significantly higher biomass, received the same amount of water as non-AM plants, with a poor biomass. Thus, the water stress treatment was more severe for AM plants than for non-AM plants. The results showed that AM colonization significantly enhanced rice growth under both water conditions, although the greatest rice development was reached in plants dually inoculated under well-watered conditions. Water level did not affect the efficiency of photosystem II, but both AM and A. brasilense inoculations increased this value. AM colonization increased stomatal conductance, particularly when associated with A. brasilense, which enhanced this parameter by 80 percent under drought conditions and by 35 percent under well-watered conditions as compared to single AM plants. Exposure of AM rice to drought stress decreased the high levels of glutathione that AM plants exhibited under well-watered conditions, while drought had no effect on the ascorbate content. The decrease of glutathione content in AM plants under drought stress conditions led to enhance lipid peroxidation. On the other hand, inoculation with the AM fungus itself increased ascorbate and proline as protective compounds to cope with the harmful effects of water limitation. Inoculation with A. brasilense also enhanced ascorbate accumulation, reaching a similar level as in AM plants. These results showed that, in spite of the fact that drought stress imposed by AM treatments was considerably more severe than non-AM treatments, rice plants benefited not only from the AM symbiosis but also from A. brasilense root colonization, regardless of the watering level. However, the beneficial effects of A. brasilense on most of the physiological and biochemical traits of rice plants were only clearly visible when the plants were mycorrhized. This microbial consortium was effective for rice plants as an acceptable and ecofriendly technology to improve plant performance and development.
format Texto
topic_facet ARBUSCULAR MYCORRHIZAL SYMBIOSIS
AZOSPIRILLUM
DROUGHT
PGPR
ANTIOXIDANT
PROLINE
WATER
BIOMASS
DEHYDRATION
EVAPOTRANSPIRATION
GROWTH, DEVELOPMENT AND AGING
METABOLISM
MICROBIOLOGY
MYCORRHIZA
OXIDATIVE STRESS
PHOTOSYNTHESIS
PHYSIOLOGY
PLANT LEAF
PLANT ROOT
RANDOMIZATION
RICE
SOIL
ANTIOXIDANTS
AZOSPIRILLUM
DEHYDRATION
MYCORRHIZAE
ORYZA SATIVA
OXIDATIVE STRESS
PHOTOSYNTHESIS
PLANT LEAVES
PLANT ROOTS
PLANT TRANSPIRATION
RANDOM ALLOCATION
SOIL
SUNLIGHT
SYMBIOSIS
ARBUSCULAR
AZOSPIRILLUM BRASILENSE
FUNGI
author Ruíz Sánchez, Michel
Armada, Elisabet
Muñoz, Yaumara
García de Salamone, Inés Eugenia
Aroca, Ricardo
Ruíz Lozano, Juan Manuel
Azcón, Rosario
author_facet Ruíz Sánchez, Michel
Armada, Elisabet
Muñoz, Yaumara
García de Salamone, Inés Eugenia
Aroca, Ricardo
Ruíz Lozano, Juan Manuel
Azcón, Rosario
author_sort Ruíz Sánchez, Michel
title Azospirillum and arbuscular mycorrhizal colonization enhance rice growth and physiological traits under well - watered and drought conditions
title_short Azospirillum and arbuscular mycorrhizal colonization enhance rice growth and physiological traits under well - watered and drought conditions
title_full Azospirillum and arbuscular mycorrhizal colonization enhance rice growth and physiological traits under well - watered and drought conditions
title_fullStr Azospirillum and arbuscular mycorrhizal colonization enhance rice growth and physiological traits under well - watered and drought conditions
title_full_unstemmed Azospirillum and arbuscular mycorrhizal colonization enhance rice growth and physiological traits under well - watered and drought conditions
title_sort azospirillum and arbuscular mycorrhizal colonization enhance rice growth and physiological traits under well - watered and drought conditions
url http://ceiba.agro.uba.ar/cgi-bin/koha/opac-detail.pl?biblionumber=46615
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AT armadaelisabet azospirillumandarbuscularmycorrhizalcolonizationenhancericegrowthandphysiologicaltraitsunderwellwateredanddroughtconditions
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spelling KOHA-OAI-AGRO:466152022-10-27T14:50:07Zhttp://ceiba.agro.uba.ar/cgi-bin/koha/opac-detail.pl?biblionumber=46615AAGAzospirillum and arbuscular mycorrhizal colonization enhance rice growth and physiological traits under well - watered and drought conditionsRuíz Sánchez, MichelArmada, ElisabetMuñoz, YaumaraGarcía de Salamone, Inés EugeniaAroca, RicardoRuíz Lozano, Juan ManuelAzcón, Rosariotextengapplication/pdfThe response of rice plants to inoculation with an arbuscular mycorrhizal [AM] fungus, Azospirillum brasilense, or combination of both microorganisms, was assayed under well-watered or drought stress conditions. Water deficit treatment was imposed by reducing the amount of water added, but AM plants, with a significantly higher biomass, received the same amount of water as non-AM plants, with a poor biomass. Thus, the water stress treatment was more severe for AM plants than for non-AM plants. The results showed that AM colonization significantly enhanced rice growth under both water conditions, although the greatest rice development was reached in plants dually inoculated under well-watered conditions. Water level did not affect the efficiency of photosystem II, but both AM and A. brasilense inoculations increased this value. AM colonization increased stomatal conductance, particularly when associated with A. brasilense, which enhanced this parameter by 80 percent under drought conditions and by 35 percent under well-watered conditions as compared to single AM plants. Exposure of AM rice to drought stress decreased the high levels of glutathione that AM plants exhibited under well-watered conditions, while drought had no effect on the ascorbate content. The decrease of glutathione content in AM plants under drought stress conditions led to enhance lipid peroxidation. On the other hand, inoculation with the AM fungus itself increased ascorbate and proline as protective compounds to cope with the harmful effects of water limitation. Inoculation with A. brasilense also enhanced ascorbate accumulation, reaching a similar level as in AM plants. These results showed that, in spite of the fact that drought stress imposed by AM treatments was considerably more severe than non-AM treatments, rice plants benefited not only from the AM symbiosis but also from A. brasilense root colonization, regardless of the watering level. However, the beneficial effects of A. brasilense on most of the physiological and biochemical traits of rice plants were only clearly visible when the plants were mycorrhized. This microbial consortium was effective for rice plants as an acceptable and ecofriendly technology to improve plant performance and development.The response of rice plants to inoculation with an arbuscular mycorrhizal [AM] fungus, Azospirillum brasilense, or combination of both microorganisms, was assayed under well-watered or drought stress conditions. Water deficit treatment was imposed by reducing the amount of water added, but AM plants, with a significantly higher biomass, received the same amount of water as non-AM plants, with a poor biomass. Thus, the water stress treatment was more severe for AM plants than for non-AM plants. The results showed that AM colonization significantly enhanced rice growth under both water conditions, although the greatest rice development was reached in plants dually inoculated under well-watered conditions. Water level did not affect the efficiency of photosystem II, but both AM and A. brasilense inoculations increased this value. AM colonization increased stomatal conductance, particularly when associated with A. brasilense, which enhanced this parameter by 80 percent under drought conditions and by 35 percent under well-watered conditions as compared to single AM plants. Exposure of AM rice to drought stress decreased the high levels of glutathione that AM plants exhibited under well-watered conditions, while drought had no effect on the ascorbate content. The decrease of glutathione content in AM plants under drought stress conditions led to enhance lipid peroxidation. On the other hand, inoculation with the AM fungus itself increased ascorbate and proline as protective compounds to cope with the harmful effects of water limitation. Inoculation with A. brasilense also enhanced ascorbate accumulation, reaching a similar level as in AM plants. These results showed that, in spite of the fact that drought stress imposed by AM treatments was considerably more severe than non-AM treatments, rice plants benefited not only from the AM symbiosis but also from A. brasilense root colonization, regardless of the watering level. However, the beneficial effects of A. brasilense on most of the physiological and biochemical traits of rice plants were only clearly visible when the plants were mycorrhized. This microbial consortium was effective for rice plants as an acceptable and ecofriendly technology to improve plant performance and development.ARBUSCULAR MYCORRHIZAL SYMBIOSISAZOSPIRILLUMDROUGHTPGPRANTIOXIDANTPROLINEWATERBIOMASSDEHYDRATIONEVAPOTRANSPIRATIONGROWTH, DEVELOPMENT AND AGINGMETABOLISMMICROBIOLOGYMYCORRHIZAOXIDATIVE STRESSPHOTOSYNTHESISPHYSIOLOGYPLANT LEAFPLANT ROOTRANDOMIZATIONRICESOILANTIOXIDANTSAZOSPIRILLUMDEHYDRATIONMYCORRHIZAEORYZA SATIVAOXIDATIVE STRESSPHOTOSYNTHESISPLANT LEAVESPLANT ROOTSPLANT TRANSPIRATIONRANDOM ALLOCATIONSOILSUNLIGHTSYMBIOSISARBUSCULARAZOSPIRILLUM BRASILENSEFUNGIJournal of Plant Physiology