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Zinc-biochemical co-fertilization improves rice performance and reduces nutrient surplus under semi-arid environmental conditions

Biofertilizers are a promising approach to substantially improve nutrient recovery and crop production. Moreover, zinc (Zn) deficiency is one of the key abiotic factors limiting global rice production. However, the effect of Zn-biochemical co-fertilization on rice production and nutrients recovery a...

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Autores principales: El-Sobky, El-Sayed E.A., Taha, Ayman E., El-Sharnouby, Mohamed, Sayed, Samy M., Elrys, Ahmed S.
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Elsevier 2022
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8913554/
https://www.ncbi.nlm.nih.gov/pubmed/35280533
http://dx.doi.org/10.1016/j.sjbs.2021.10.066
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author El-Sobky, El-Sayed E.A.
Taha, Ayman E.
El-Sharnouby, Mohamed
Sayed, Samy M.
Elrys, Ahmed S.
author_facet El-Sobky, El-Sayed E.A.
Taha, Ayman E.
El-Sharnouby, Mohamed
Sayed, Samy M.
Elrys, Ahmed S.
author_sort El-Sobky, El-Sayed E.A.
collection PubMed
description Biofertilizers are a promising approach to substantially improve nutrient recovery and crop production. Moreover, zinc (Zn) deficiency is one of the key abiotic factors limiting global rice production. However, the effect of Zn-biochemical co-fertilization on rice production and nutrients recovery and surplus under semi-arid environmental conditions is not fully obvious. Two years field experiment was conducted to evaluate the effect of Zn-biochemical (nitrogen “N”, phosphorus “P”, and potassium “K”) co-fertilization on yield and yield components, physico-chemical characteristics, and nutrient recovery and surplus as well as farm profitability of four rice (Oryza sativa L.) cultivars treated with two Zn levels (no Zn application, and 600 mg chelated Zn L(−1) as a foliar application) and six fertilization regimes (no fertilizers application, biofertilizers, 25% NPK plus biofertilizers, 50% NPK plus biofertilizers, 75% NPK plus biofertilizers, and 100% NPK). Biofertilizers mixture (cerealin, phosphorine, and potassiomage) were used. The results revealed that chemical constituents, growth attributes, yield, yield components, nutrients uptake (N, P, K, and Zn), and nutrients recovery (N, P, and K) significantly increased due to Zn foliar application. Biofertilizers replacement for 25% of inorganic NPK combined with Zn provides the highest nutrients uptake through increasing N, P, and K recovery by 57–94%, 61–128%, and 45–69%, respectively in the four rice cultivars compared with 100% NPK treatment. This improvement in nutrients uptake and recovery was attributed to decrease nutrients surplus by 64–78%, 46–53%, and 50–59%, respectively. Additionally, Zn-biochemical co-fertilization improves growth attributes, yield, and yield components of rice cultivars through producing more contents of chlorophyll a and b, carotenoids, total carbohydrates, and total amino acids than using 100% NPK alone. All previous characteristics significantly affected by the cultivated rice variety. The net return under the treatment of 75% NPK plus biofertilizers plus Zn foliar application was 21.5–27.5% higher than the treatment of 100% NPK. Therefore, our findings suggest that biofertilizers replacement for 25% of inorganic NPK combined with Zn foliar application supplies a financially attractive choice to substantially enhance nutrient recovery and production of rice, while effectively reducing nutrients loss.
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spelling pubmed-89135542022-03-12 Zinc-biochemical co-fertilization improves rice performance and reduces nutrient surplus under semi-arid environmental conditions El-Sobky, El-Sayed E.A. Taha, Ayman E. El-Sharnouby, Mohamed Sayed, Samy M. Elrys, Ahmed S. Saudi J Biol Sci Original Article Biofertilizers are a promising approach to substantially improve nutrient recovery and crop production. Moreover, zinc (Zn) deficiency is one of the key abiotic factors limiting global rice production. However, the effect of Zn-biochemical co-fertilization on rice production and nutrients recovery and surplus under semi-arid environmental conditions is not fully obvious. Two years field experiment was conducted to evaluate the effect of Zn-biochemical (nitrogen “N”, phosphorus “P”, and potassium “K”) co-fertilization on yield and yield components, physico-chemical characteristics, and nutrient recovery and surplus as well as farm profitability of four rice (Oryza sativa L.) cultivars treated with two Zn levels (no Zn application, and 600 mg chelated Zn L(−1) as a foliar application) and six fertilization regimes (no fertilizers application, biofertilizers, 25% NPK plus biofertilizers, 50% NPK plus biofertilizers, 75% NPK plus biofertilizers, and 100% NPK). Biofertilizers mixture (cerealin, phosphorine, and potassiomage) were used. The results revealed that chemical constituents, growth attributes, yield, yield components, nutrients uptake (N, P, K, and Zn), and nutrients recovery (N, P, and K) significantly increased due to Zn foliar application. Biofertilizers replacement for 25% of inorganic NPK combined with Zn provides the highest nutrients uptake through increasing N, P, and K recovery by 57–94%, 61–128%, and 45–69%, respectively in the four rice cultivars compared with 100% NPK treatment. This improvement in nutrients uptake and recovery was attributed to decrease nutrients surplus by 64–78%, 46–53%, and 50–59%, respectively. Additionally, Zn-biochemical co-fertilization improves growth attributes, yield, and yield components of rice cultivars through producing more contents of chlorophyll a and b, carotenoids, total carbohydrates, and total amino acids than using 100% NPK alone. All previous characteristics significantly affected by the cultivated rice variety. The net return under the treatment of 75% NPK plus biofertilizers plus Zn foliar application was 21.5–27.5% higher than the treatment of 100% NPK. Therefore, our findings suggest that biofertilizers replacement for 25% of inorganic NPK combined with Zn foliar application supplies a financially attractive choice to substantially enhance nutrient recovery and production of rice, while effectively reducing nutrients loss. Elsevier 2022-03 2021-10-29 /pmc/articles/PMC8913554/ /pubmed/35280533 http://dx.doi.org/10.1016/j.sjbs.2021.10.066 Text en © 2021 The Author(s) https://creativecommons.org/licenses/by-nc-nd/4.0/This is an open access article under the CC BY-NC-ND license (http://creativecommons.org/licenses/by-nc-nd/4.0/).
spellingShingle Original Article
El-Sobky, El-Sayed E.A.
Taha, Ayman E.
El-Sharnouby, Mohamed
Sayed, Samy M.
Elrys, Ahmed S.
Zinc-biochemical co-fertilization improves rice performance and reduces nutrient surplus under semi-arid environmental conditions
title Zinc-biochemical co-fertilization improves rice performance and reduces nutrient surplus under semi-arid environmental conditions
title_full Zinc-biochemical co-fertilization improves rice performance and reduces nutrient surplus under semi-arid environmental conditions
title_fullStr Zinc-biochemical co-fertilization improves rice performance and reduces nutrient surplus under semi-arid environmental conditions
title_full_unstemmed Zinc-biochemical co-fertilization improves rice performance and reduces nutrient surplus under semi-arid environmental conditions
title_short Zinc-biochemical co-fertilization improves rice performance and reduces nutrient surplus under semi-arid environmental conditions
title_sort zinc-biochemical co-fertilization improves rice performance and reduces nutrient surplus under semi-arid environmental conditions
topic Original Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8913554/
https://www.ncbi.nlm.nih.gov/pubmed/35280533
http://dx.doi.org/10.1016/j.sjbs.2021.10.066
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