Mechanism of aluminum tolerance in snapbeans. Root exudation of citric acid

One proposed mechanism of aluminum (Al) tolerance in plants is the release of an Al-chelating compound into the rhizosphere. In this experiment, two cultivars of snapbeans (Phaseolus vulgaris L. "Romano" and "Dade") that differ in Al tolerance were grown hydroponically with and w...

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Published in:Plant physiology (Bethesda) Vol. 96; no. 3; pp. 737 - 743
Main Authors: Miyasaka, S.C. (University of Hawaii, Hawaii Branch Station, Hilo, HI), Buta, J.G, Howell, R.K, Foy, C.D
Format: Journal Article
Language:English
Published: Rockville, MD American Society of Plant Physiologists 01-07-1991
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Abstract One proposed mechanism of aluminum (Al) tolerance in plants is the release of an Al-chelating compound into the rhizosphere. In this experiment, two cultivars of snapbeans (Phaseolus vulgaris L. "Romano" and "Dade") that differ in Al tolerance were grown hydroponically with and without Al under aseptic conditions. After growth in nutrient solutions for 8 days, aliphatic and phenolic organic acids were analyzed in the culture solutions with an ion chromatograph and a high pressure liquid chromatograph. The tolerant snapbean, "Dade", when exposed to Al, exuded citric acid into the rhizosphere in a concentration that was 70 times as great as that of "Dade" grown without Al, and 10 times as great as that of "Romano" grown with or without Al. The sensitive cultivar, "Romano", exuded only slightly more citric acid into the growing medium under Al-stress, compared to nonstressed conditions. Citric acid is known to chelate Al strongly and to reverse its phytotoxic effects. Also, citric acid has been shown previously to enhance the availability of phosphorus (P) from insoluble Al phosphates. Thus, one mechanism of Al-tolerance in snapbeans appears to be the exudation of citric acid into the rhizosphere, induced either by toxic levels of Al or by low P due to the precipitation of insoluble Al phosphates. Our experiment was not able to distinguish between these two factors; however, tolerance to both primary and secondary Al-stress injuries are important for plants growing in Al-toxic soils
AbstractList One proposed mechanism of aluminum (Al) tolerance in plants is the release of an Al-chelating compound into the rhizosphere. In this experiment, two cultivars of snapbeans (Phaseolus vulgaris L. Romano and Dade) that differ in Al tolerance were grown hydroponically with and without Al under aseptic conditions. After growth in nutrient solutions for 8 days, aliphatic and phenolic organic acids were analyzed in the culture solutions with an ion chromatograph and a high pressure liquid chromatograph. The tolerant snapbean, Dade when exposed to Al, exuded citric acid into the rhizosphere in a concentration that was 70 times as great as that of Dade grown without Al, and 10 times as great as that of Romano grown without Al, and 10 times as great as that of Romano, exuded only slightly more citric acid into the growing medium under Al-stress, compared to nonstressed conditions. Citric acid is known to chelate Al strongly and to reverse its phytotoxic effects. Also, citric acid has been shown previously to enhance the availability of phosphorus (P) from insoluble Al phosphates, Thus, one mechanism of Al-tolerance in snapbeans appears to be the exudation of citric acid into the rhizosphere, induced either by toxic levels of Al or by low P due to the precipitation of insoluble Al phosphates. The experiment was not able to distinguish between these two factors; however, tolerance to both primary and secondary Al-stress injuries are important for plants growing in Al-toxic soils.
One proposed mechanism of aluminum (Al) tolerance in plants is the release of an Al-chelating compound into the rhizosphere. In this experiment, two cultivars of snapbeans (Phaseolus vulgaris L. "Romano" and "Dade") that differ in Al tolerance were grown hydroponically with and without Al under aseptic conditions. After growth in nutrient solutions for 8 days, aliphatic and phenolic organic acids were analyzed in the culture solutions with an ion chromatograph and a high pressure liquid chromatograph. The tolerant snapbean, "Dade", when exposed to Al, exuded citric acid into the rhizosphere in a concentration that was 70 times as great as that of "Dade" grown without Al, and 10 times as great as that of "Romano" grown with or without Al. The sensitive cultivar, "Romano", exuded only slightly more citric acid into the growing medium under Al-stress, compared to nonstressed conditions. Citric acid is known to chelate Al strongly and to reverse its phytotoxic effects. Also, citric acid has been shown previously to enhance the availability of phosphorus (P) from insoluble Al phosphates. Thus, one mechanism of Al-tolerance in snapbeans appears to be the exudation of citric acid into the rhizosphere, induced either by toxic levels of Al or by low P due to the precipitation of insoluble Al phosphates. Our experiment was not able to distinguish between these two factors; however, tolerance to both primary and secondary Al-stress injuries are important for plants growing in Al-toxic soils.
One proposed mechanism of aluminum (Al) tolerance in plants is the release of an Al-chelating compound into the rhizosphere. In this experiment, two cultivars of snapbeans (Phaseolus vulgaris L. "Romano" and "Dade") that differ in Al tolerance were grown hydroponically with and without Al under aseptic conditions. After growth in nutrient solutions for 8 days, aliphatic and phenolic organic acids were analyzed in the culture solutions with an ion chromatograph and a high pressure liquid chromatograph. The tolerant snapbean, "Dade", when exposed to Al, exuded citric acid into the rhizosphere in a concentration that was 70 times as great as that of "Dade" grown without Al, and 10 times as great as that of "Romano" grown with or without Al. The sensitive cultivar, "Romano", exuded only slightly more citric acid into the growing medium under Al-stress, compared to nonstressed conditions. Citric acid is known to chelate Al strongly and to reverse its phytotoxic effects. Also, citric acid has been shown previously to enhance the availability of phosphorus (P) from insoluble Al phosphates. Thus, one mechanism of Al-tolerance in snapbeans appears to be the exudation of citric acid into the rhizosphere, induced either by toxic levels of Al or by low P due to the precipitation of insoluble Al phosphates. Our experiment was not able to distinguish between these two factors; however, tolerance to both primary and secondary Al-stress injuries are important for plants growing in Al-toxic soils
Author Miyasaka, S.C. (University of Hawaii, Hawaii Branch Station, Hilo, HI)
Buta, J.G
Howell, R.K
Foy, C.D
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Issue 3
Keywords Root
Tolerance
Aluminium
Organic acids
Citric acid
Stress
Rhizosphere
Phytotoxicity
Leguminosae
Vegetable crop
Phaseolus vulgaris
Dicotyledones
Hydroponic cultivation
Angiospermae
Chelation
pH
Spermatophyta
Exudation
Cultivar
Language English
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PublicationPlace Rockville, MD
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PublicationTitle Plant physiology (Bethesda)
PublicationTitleAlternate Plant Physiol
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Snippet One proposed mechanism of aluminum (Al) tolerance in plants is the release of an Al-chelating compound into the rhizosphere. In this experiment, two cultivars...
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SubjectTerms 560300 - Chemicals Metabolism & Toxicology
Acid soils
ACIDE CITRIQUE
ACIDO CITRICO
Adaptation to environment and cultivation conditions
Agronomy. Soil science and plant productions
ALUMINIO
ALUMINIUM
Aluminum
Biological and medical sciences
BIOLOGICAL AVAILABILITY
BIOLOGICAL STRESS
CARBOXYLIC ACIDS
CHELATING AGENTS
CITRIC ACID
COMPOSICION QUIMICA
COMPOSITION CHIMIQUE
CRECIMIENTO
CROISSANCE
ELEMENTS
EXSUDAT
EXUDADOS
FITOTOXICIDAD
Fundamental and applied biological sciences. Psychology
Genetics and breeding of economic plants
HYDROXY ACIDS
LEGUMINOSAE
MAGNOLIOPHYTA
MAGNOLIOPSIDA
METALS
NONMETALS
Nutrient solutions
ORGANIC ACIDS
ORGANIC COMPOUNDS
PHASEOLUS
PHASEOLUS VULGARIS
Phosphates
PHOSPHORUS
PHYTOTOXICITE
Plant roots
PLANTS
RACINE
RADIATION, THERMAL, AND OTHER ENVIRON. POLLUTANT EFFECTS ON LIVING ORGS. AND BIOL. MAT
RAICES
Rhizosphere
Seedlings
SENSITIVITY
SOILS
TOLERANCE
TOXICITY
VARIACION GENETICA
VARIATION GENETIQUE
VARIEDADES
Varietal selection. Specialized plant breeding, plant breeding aims
VARIETE
Title Mechanism of aluminum tolerance in snapbeans. Root exudation of citric acid
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