The effects of pH on phosphorus utilisation by chickpea (Cicer arietinum)

Chickpea ( Cicer arietinum ) is known to secrete organic anions. We investigated its effectiveness in obtaining P over a range of pH values. Methods We grew two cultivars of chickpea, supplied with either ammonium or nitrate nitrogen, at 10 levels of applied P, and at four initial pH values. We meas...

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Published inPlant and soil Vol. 495; no. 1-2; pp. 663 - 673
Main Authors Barrow, N. J., Parvin, Subhechhya Ali, Debnath, Abhijit
Format Journal Article
LanguageEnglish
Published Cham Springer International Publishing 01.02.2024
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Abstract Chickpea ( Cicer arietinum ) is known to secrete organic anions. We investigated its effectiveness in obtaining P over a range of pH values. Methods We grew two cultivars of chickpea, supplied with either ammonium or nitrate nitrogen, at 10 levels of applied P, and at four initial pH values. We measured plant weight, P concentration in the tops, and rhizosphere pH. We compared the results with those previously obtained for lucerne ( Medicago sativa ), mustard ( Brassica campestris ) and rice ( Oryza sativa ). Results Above an initial pH CaCl2 , of about 5, rhizosphere pH decreased; below this value it increased. The changes in pH were proportional to the amounts of P applied. They were greatest at high levels of applied P. Best growth occurred when the initial pH CaCl2 was 5.9 and when the rhizosphere pH CaCl2 was close to 5. Plots of growth against plant shoot P concentration showed little effect of low pH suggesting that aluminium toxicity was only of minor importance. Nevertheless, plant weight was severely depressed by low pH. Conclusions The mechanism of P uptake for chickpea seems to differ from that for lucerne, mustard and rice. The way that the charge on the phosphate ions is balanced seems to depend on the soil pH. Further, uptake is much more markedly depressed by at low pH.
AbstractList Chickpea (Cicer arietinum) is known to secrete organic anions. We investigated its effectiveness in obtaining P over a range of pH values. METHODS: We grew two cultivars of chickpea, supplied with either ammonium or nitrate nitrogen, at 10 levels of applied P, and at four initial pH values. We measured plant weight, P concentration in the tops, and rhizosphere pH. We compared the results with those previously obtained for lucerne (Medicago sativa), mustard (Brassica campestris) and rice (Oryza sativa). RESULTS: Above an initial pHCₐCₗ₂, of about 5, rhizosphere pH decreased; below this value it increased. The changes in pH were proportional to the amounts of P applied. They were greatest at high levels of applied P. Best growth occurred when the initial pHCₐCₗ₂ was 5.9 and when the rhizosphere pHCₐCₗ₂ was close to 5. Plots of growth against plant shoot P concentration showed little effect of low pH suggesting that aluminium toxicity was only of minor importance. Nevertheless, plant weight was severely depressed by low pH. CONCLUSIONS: The mechanism of P uptake for chickpea seems to differ from that for lucerne, mustard and rice. The way that the charge on the phosphate ions is balanced seems to depend on the soil pH. Further, uptake is much more markedly depressed by at low pH.
Chickpea (Cicer arietinum) is known to secrete organic anions. We investigated its effectiveness in obtaining P over a range of pH values. Methods We grew two cultivars of chickpea, supplied with either ammonium or nitrate nitrogen, at 10 levels of applied P, and at four initial pH values. We measured plant weight, P concentration in the tops, and rhizosphere pH. We compared the results with those previously obtained for lucerne (Medicago sativa), mustard (Brassica campestris) and rice (Oryza sativa). Results Above an initial pH.sub.CaCl2, of about 5, rhizosphere pH decreased; below this value it increased. The changes in pH were proportional to the amounts of P applied. They were greatest at high levels of applied P. Best growth occurred when the initial pH.sub.CaCl2 was 5.9 and when the rhizosphere pH.sub.CaCl2 was close to 5. Plots of growth against plant shoot P concentration showed little effect of low pH suggesting that aluminium toxicity was only of minor importance. Nevertheless, plant weight was severely depressed by low pH. Conclusions The mechanism of P uptake for chickpea seems to differ from that for lucerne, mustard and rice. The way that the charge on the phosphate ions is balanced seems to depend on the soil pH. Further, uptake is much more markedly depressed by at low pH.
Chickpea (Cicer arietinum) is known to secrete organic anions. We investigated its effectiveness in obtaining P over a range of pH values.MethodsWe grew two cultivars of chickpea, supplied with either ammonium or nitrate nitrogen, at 10 levels of applied P, and at four initial pH values. We measured plant weight, P concentration in the tops, and rhizosphere pH. We compared the results with those previously obtained for lucerne (Medicago sativa), mustard (Brassica campestris) and rice (Oryza sativa).ResultsAbove an initial pHCaCl2, of about 5, rhizosphere pH decreased; below this value it increased. The changes in pH were proportional to the amounts of P applied. They were greatest at high levels of applied P. Best growth occurred when the initial pHCaCl2 was 5.9 and when the rhizosphere pHCaCl2 was close to 5. Plots of growth against plant shoot P concentration showed little effect of low pH suggesting that aluminium toxicity was only of minor importance. Nevertheless, plant weight was severely depressed by low pH.ConclusionsThe mechanism of P uptake for chickpea seems to differ from that for lucerne, mustard and rice. The way that the charge on the phosphate ions is balanced seems to depend on the soil pH. Further, uptake is much more markedly depressed by at low pH.
Chickpea ( Cicer arietinum ) is known to secrete organic anions. We investigated its effectiveness in obtaining P over a range of pH values. Methods We grew two cultivars of chickpea, supplied with either ammonium or nitrate nitrogen, at 10 levels of applied P, and at four initial pH values. We measured plant weight, P concentration in the tops, and rhizosphere pH. We compared the results with those previously obtained for lucerne ( Medicago sativa ), mustard ( Brassica campestris ) and rice ( Oryza sativa ). Results Above an initial pH CaCl2 , of about 5, rhizosphere pH decreased; below this value it increased. The changes in pH were proportional to the amounts of P applied. They were greatest at high levels of applied P. Best growth occurred when the initial pH CaCl2 was 5.9 and when the rhizosphere pH CaCl2 was close to 5. Plots of growth against plant shoot P concentration showed little effect of low pH suggesting that aluminium toxicity was only of minor importance. Nevertheless, plant weight was severely depressed by low pH. Conclusions The mechanism of P uptake for chickpea seems to differ from that for lucerne, mustard and rice. The way that the charge on the phosphate ions is balanced seems to depend on the soil pH. Further, uptake is much more markedly depressed by at low pH.
Audience Academic
Author Barrow, N. J.
Debnath, Abhijit
Parvin, Subhechhya Ali
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Keywords Chickpea
Soil reaction
Phosphorus uptake
Aluminium toxicity
Phosphorus uptake mechanism
Rhizosphere pH
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Snippet Chickpea ( Cicer arietinum ) is known to secrete organic anions. We investigated its effectiveness in obtaining P over a range of pH values. Methods We grew...
Chickpea (Cicer arietinum) is known to secrete organic anions. We investigated its effectiveness in obtaining P over a range of pH values. Methods We grew two...
Chickpea (Cicer arietinum) is known to secrete organic anions. We investigated its effectiveness in obtaining P over a range of pH values.MethodsWe grew two...
Chickpea (Cicer arietinum) is known to secrete organic anions. We investigated its effectiveness in obtaining P over a range of pH values. METHODS: We grew two...
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SubjectTerms Acidification
Agriculture
Alfalfa
Aluminum
Ammonium
Analysis
Anions
Biomedical and Life Sciences
Brassica rapa subsp. oleifera
Chickpea
Chickpeas
Cicer arietinum
Cultivars
Ecology
Growth
Hydrogen-ion concentration
Legumes
Life Sciences
Medicago sativa
Mustard
nitrate nitrogen
Nitrogen
Oryza sativa
phosphates
Phosphorus
Plant Physiology
Plant Sciences
Rape plants
Research Article
Rhizosphere
Rice
Seeds
Soil acidity
Soil chemistry
Soil pH
Soil Science & Conservation
Soil sciences
Toxicity
Varieties
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Title The effects of pH on phosphorus utilisation by chickpea (Cicer arietinum)
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