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Iron Distribution in the Rhizosphere of Citrus Rootstocks: Exploring the Impact on Plant Uptake and Bioaccumulation

The soils citrus rootstocks grow in are mostly calcareous and iron deficiency is a common problem for crops growing in calcareous soil. Therefore, the present study was conducted to investigate the effect of different citrus rootstocks and rhizosphere distance on chemical forms of iron in calcareous...

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Published in:Journal of soil science and plant nutrition 2024-12, Vol.24 (4), p.6584-6597
Main Authors: Kamalizadeh, Maryam, Shafiei, Saeid, Hamidpour, Mohsen, Shekofteh, Hosein, Alavi-Siney, Seid Mohammad
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description The soils citrus rootstocks grow in are mostly calcareous and iron deficiency is a common problem for crops growing in calcareous soil. Therefore, the present study was conducted to investigate the effect of different citrus rootstocks and rhizosphere distance on chemical forms of iron in calcareous soil and the study of correlations between chemical forms of iron. To investigate the effect of rhizosphere (rhizosphere soil, 2, 4, 6 mm distance from rhizosphere and non-rhizosphere soils) and different citrus rootstocks (Poncera, Narenj, Backraii, Citrumelo, Raf lemon, Rangpur lime, Cleopatra, Valkameriana, Troyer citrange) on chemical forms of iron, a greenhouse experiment was conducted in a factorial and completely randomized design with three replications. The seed of the plants was cultivated and settled in the rhizobox for 5 months. Then in the collected samples, the chemical forms of iron (using a sequential extraction method) and absorbable iron were measured through DTPA method. The results showed that the exchangeable Fe, oxide bound Fe and organically bound Fe in the rhizosphere had a lower concentration of iron than the other parts, but carbonate bound Fe at a distance of 2 mm from the rhizosphere had the lowest concentration of iron compared to other distances. Also, In Narenj, Raf lemon and Troyer citrange rootstocks, the concentration of active iron in the roots was lower than that in the shoot, which indicates the high efficiency of iron transfer from root to leaf in these rootstocks. The highest uptake of active iron in the shoot was in Raf lemon (21793 mg kg −1 ) and Narenj rootstocks (19690 mg kg −1 ), and the lowest uptake of active iron in the shoot was obtained from the rootstock of Backraii (74892 mg kg −1 ). In general, the results of this study showed that the concentration and uptake of iron in the plant were strongly dependent on the type of rootstock. The highest amount of active iron in the shoot was obtained in the Raf lemon and Narenj rootstocks, which indicates the high efficiency of iron transfer from root to leaf in these rootstocks. Also, the study of the correlation between iron fractions in rhizosphere soil and the concentration and uptake of iron in the root and shoot showed that there is a positive relationship only between the oxide-bound Fe component and active iron of the shoot which this shows the direct relationship between these two traits.
doi_str_mv 10.1007/s42729-024-01992-7
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The results showed that the exchangeable Fe, oxide bound Fe and organically bound Fe in the rhizosphere had a lower concentration of iron than the other parts, but carbonate bound Fe at a distance of 2 mm from the rhizosphere had the lowest concentration of iron compared to other distances. Also, In Narenj, Raf lemon and Troyer citrange rootstocks, the concentration of active iron in the roots was lower than that in the shoot, which indicates the high efficiency of iron transfer from root to leaf in these rootstocks. The highest uptake of active iron in the shoot was in Raf lemon (21793 mg kg −1 ) and Narenj rootstocks (19690 mg kg −1 ), and the lowest uptake of active iron in the shoot was obtained from the rootstock of Backraii (74892 mg kg −1 ). In general, the results of this study showed that the concentration and uptake of iron in the plant were strongly dependent on the type of rootstock. 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Therefore, the present study was conducted to investigate the effect of different citrus rootstocks and rhizosphere distance on chemical forms of iron in calcareous soil and the study of correlations between chemical forms of iron. To investigate the effect of rhizosphere (rhizosphere soil, 2, 4, 6 mm distance from rhizosphere and non-rhizosphere soils) and different citrus rootstocks (Poncera, Narenj, Backraii, Citrumelo, Raf lemon, Rangpur lime, Cleopatra, Valkameriana, Troyer citrange) on chemical forms of iron, a greenhouse experiment was conducted in a factorial and completely randomized design with three replications. The seed of the plants was cultivated and settled in the rhizobox for 5 months. Then in the collected samples, the chemical forms of iron (using a sequential extraction method) and absorbable iron were measured through DTPA method. The results showed that the exchangeable Fe, oxide bound Fe and organically bound Fe in the rhizosphere had a lower concentration of iron than the other parts, but carbonate bound Fe at a distance of 2 mm from the rhizosphere had the lowest concentration of iron compared to other distances. Also, In Narenj, Raf lemon and Troyer citrange rootstocks, the concentration of active iron in the roots was lower than that in the shoot, which indicates the high efficiency of iron transfer from root to leaf in these rootstocks. The highest uptake of active iron in the shoot was in Raf lemon (21793 mg kg −1 ) and Narenj rootstocks (19690 mg kg −1 ), and the lowest uptake of active iron in the shoot was obtained from the rootstock of Backraii (74892 mg kg −1 ). In general, the results of this study showed that the concentration and uptake of iron in the plant were strongly dependent on the type of rootstock. 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subjects Acids
Agriculture
Bioaccumulation
Bioavailability
Biomedical and Life Sciences
Calcareous soils
Citrinae
Citrus fruits
Ecology
Environment
Fruits
Iron
Iron deficiency
Leaves
Lemons
Life Sciences
Microorganisms
Nutrient deficiency
Original Paper
Physiology
Plant layout
Plant Sciences
Plants (botany)
Potassium
Rhizosphere
Rootstocks
Shoots
Soil chemistry
Soil investigations
Soil Science & Conservation
Soils
Usability
Zinc
title Iron Distribution in the Rhizosphere of Citrus Rootstocks: Exploring the Impact on Plant Uptake and Bioaccumulation
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