Selenium biofortification of soybean genotypes in a tropical soil via Se-enriched phosphate fertilizers
Soybean is a major crop in Brazil and is usually grown in oxidic soils that need high rates of phosphate (P) fertilizers. Soybean is also very suitable for biofortification with Se, since its grains have high protein contents and are widely consumed worldwide (directly or indirectly). Few studies ha...
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Published in | Frontiers in plant science Vol. 13; p. 988140 |
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Main Authors | , , , , , , , , , |
Format | Journal Article |
Language | English |
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14.09.2022
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Abstract | Soybean is a major crop in Brazil and is usually grown in oxidic soils that need high rates of phosphate (P) fertilizers. Soybean is also very suitable for biofortification with Se, since its grains have high protein contents and are widely consumed worldwide (directly or indirectly). Few studies have addressed Se application under field conditions for soybean biofortification, especially in tropical soils. Here, we evaluated agronomic and physiological responses resulting from different strategies for biofortifying soybean grains with Se by applying this element
via
soil, using both conventional and enhanced-efficiency P fertilizers as Se carriers. The experiment was carried out at the Uva Farm, in Capão Bonito (São Paulo), Brazil. The experimental design was a randomized block split-plot design, with four fertilizer sources—conventional monoammonium phosphate (C-MAP), conventional monoammonium phosphate + Se (C-MAP + Se), enhanced-efficiency monoammonium phosphate (E-MAP), and enhanced-efficiency monoammonium phosphate + Se (E-MAP + Se), and four soybean genotypes (M5917, 58I60 LANÇA, TMG7061, and NA5909). The selenium rate applied
via
C-MAP + Se and E-MAP + Se was 80 g ha
−1
. The application of the tested fertilizers was carried out at the sowing of the 2018/2019 cropping season, with their residual effect being also assessed in the 2019/2020 cropping season. Selenium application increased grain yield for the TMG7061 genotype. For all evaluated genotypes, Se content in grains increased in the 2018/2019 harvest with the application of Se
via
C-MAP + Se and E-MAP + Se. In general, the application of Se
via
C-MAP favored an increase in amino acid contents in grains and decreased lipid peroxidation. In summary, the application of Se-enriched P fertilizers
via
soil increased soybean grain yield, leading to better grain quality. No residual effects for biofortifying soybean grains were detected in a subsequent soybean cropping season. |
---|---|
AbstractList | Soybean is a major crop in Brazil and is usually grown in oxidic soils that need high rates of phosphate (P) fertilizers. Soybean is also very suitable for biofortification with Se, since its grains have high protein contents and are widely consumed worldwide (directly or indirectly). Few studies have addressed Se application under field conditions for soybean biofortification, especially in tropical soils. Here, we evaluated agronomic and physiological responses resulting from different strategies for biofortifying soybean grains with Se by applying this element
via
soil, using both conventional and enhanced-efficiency P fertilizers as Se carriers. The experiment was carried out at the Uva Farm, in Capão Bonito (São Paulo), Brazil. The experimental design was a randomized block split-plot design, with four fertilizer sources—conventional monoammonium phosphate (C-MAP), conventional monoammonium phosphate + Se (C-MAP + Se), enhanced-efficiency monoammonium phosphate (E-MAP), and enhanced-efficiency monoammonium phosphate + Se (E-MAP + Se), and four soybean genotypes (M5917, 58I60 LANÇA, TMG7061, and NA5909). The selenium rate applied
via
C-MAP + Se and E-MAP + Se was 80 g ha
−1
. The application of the tested fertilizers was carried out at the sowing of the 2018/2019 cropping season, with their residual effect being also assessed in the 2019/2020 cropping season. Selenium application increased grain yield for the TMG7061 genotype. For all evaluated genotypes, Se content in grains increased in the 2018/2019 harvest with the application of Se
via
C-MAP + Se and E-MAP + Se. In general, the application of Se
via
C-MAP favored an increase in amino acid contents in grains and decreased lipid peroxidation. In summary, the application of Se-enriched P fertilizers
via
soil increased soybean grain yield, leading to better grain quality. No residual effects for biofortifying soybean grains were detected in a subsequent soybean cropping season. Soybean is a major crop in Brazil and is usually grown in oxidic soils that need high rates of phosphate (P) fertilizers. Soybean is also very suitable for biofortification with Se, since its grains have high protein contents and are widely consumed worldwide (directly or indirectly). Few studies have addressed Se application under field conditions for soybean biofortification, especially in tropical soils. Here, we evaluated agronomic and physiological responses resulting from different strategies for biofortifying soybean grains with Se by applying this element via soil, using both conventional and enhanced-efficiency P fertilizers as Se carriers. The experiment was carried out at the Uva Farm, in Capão Bonito (São Paulo), Brazil. The experimental design was a randomized block split-plot design, with four fertilizer sources—conventional monoammonium phosphate (C-MAP), conventional monoammonium phosphate + Se (C-MAP + Se), enhanced-efficiency monoammonium phosphate (E-MAP), and enhanced-efficiency monoammonium phosphate + Se (E-MAP + Se), and four soybean genotypes (M5917, 58I60 LANÇA, TMG7061, and NA5909). The selenium rate applied via C-MAP + Se and E-MAP + Se was 80 g ha−1. The application of the tested fertilizers was carried out at the sowing of the 2018/2019 cropping season, with their residual effect being also assessed in the 2019/2020 cropping season. Selenium application increased grain yield for the TMG7061 genotype. For all evaluated genotypes, Se content in grains increased in the 2018/2019 harvest with the application of Se via C-MAP + Se and E-MAP + Se. In general, the application of Se via C-MAP favored an increase in amino acid contents in grains and decreased lipid peroxidation. In summary, the application of Se-enriched P fertilizers via soil increased soybean grain yield, leading to better grain quality. No residual effects for biofortifying soybean grains were detected in a subsequent soybean cropping season. Soybean is a major crop in Brazil and is usually grown in oxidic soils that need high rates of phosphate (P) fertilizers. Soybean is also very suitable for biofortification with Se, since its grains have high protein contents and are widely consumed worldwide (directly or indirectly). Few studies have addressed Se application under field conditions for soybean biofortification, especially in tropical soils. Here, we evaluated agronomic and physiological responses resulting from different strategies for biofortifying soybean grains with Se by applying this element via soil, using both conventional and enhanced-efficiency P fertilizers as Se carriers. The experiment was carried out at the Uva Farm, in Capão Bonito (São Paulo), Brazil. The experimental design was a randomized block split-plot design, with four fertilizer sources-conventional monoammonium phosphate (C-MAP), conventional monoammonium phosphate + Se (C-MAP + Se), enhanced-efficiency monoammonium phosphate (E-MAP), and enhanced-efficiency monoammonium phosphate + Se (E-MAP + Se), and four soybean genotypes (M5917, 58I60 LANÇA, TMG7061, and NA5909). The selenium rate applied via C-MAP + Se and E-MAP + Se was 80 g ha-1. The application of the tested fertilizers was carried out at the sowing of the 2018/2019 cropping season, with their residual effect being also assessed in the 2019/2020 cropping season. Selenium application increased grain yield for the TMG7061 genotype. For all evaluated genotypes, Se content in grains increased in the 2018/2019 harvest with the application of Se via C-MAP + Se and E-MAP + Se. In general, the application of Se via C-MAP favored an increase in amino acid contents in grains and decreased lipid peroxidation. In summary, the application of Se-enriched P fertilizers via soil increased soybean grain yield, leading to better grain quality. No residual effects for biofortifying soybean grains were detected in a subsequent soybean cropping season.Soybean is a major crop in Brazil and is usually grown in oxidic soils that need high rates of phosphate (P) fertilizers. Soybean is also very suitable for biofortification with Se, since its grains have high protein contents and are widely consumed worldwide (directly or indirectly). Few studies have addressed Se application under field conditions for soybean biofortification, especially in tropical soils. Here, we evaluated agronomic and physiological responses resulting from different strategies for biofortifying soybean grains with Se by applying this element via soil, using both conventional and enhanced-efficiency P fertilizers as Se carriers. The experiment was carried out at the Uva Farm, in Capão Bonito (São Paulo), Brazil. The experimental design was a randomized block split-plot design, with four fertilizer sources-conventional monoammonium phosphate (C-MAP), conventional monoammonium phosphate + Se (C-MAP + Se), enhanced-efficiency monoammonium phosphate (E-MAP), and enhanced-efficiency monoammonium phosphate + Se (E-MAP + Se), and four soybean genotypes (M5917, 58I60 LANÇA, TMG7061, and NA5909). The selenium rate applied via C-MAP + Se and E-MAP + Se was 80 g ha-1. The application of the tested fertilizers was carried out at the sowing of the 2018/2019 cropping season, with their residual effect being also assessed in the 2019/2020 cropping season. Selenium application increased grain yield for the TMG7061 genotype. For all evaluated genotypes, Se content in grains increased in the 2018/2019 harvest with the application of Se via C-MAP + Se and E-MAP + Se. In general, the application of Se via C-MAP favored an increase in amino acid contents in grains and decreased lipid peroxidation. In summary, the application of Se-enriched P fertilizers via soil increased soybean grain yield, leading to better grain quality. No residual effects for biofortifying soybean grains were detected in a subsequent soybean cropping season. |
Author | Silva, Maila Adriely Corguinha, Ana Paula Branco Lopes, Guilherme Amaral, Douglas de Sousa, Gustavo Ferreira Oliveira, Cynthia de Lima Lessa, Josimar Henrique Guilherme, Luiz Roberto Guimarães Brown, Patrick Dinali, Guilherme Soares |
AuthorAffiliation | 2 ICL South American , São Paulo , Brazil 1 Soil Science Department, Federal University of Lavras , Lavras , Brazil 3 University of California, Handord—Agriculture and Natural Resources , Hanford, CA , United States 4 Department of Plant Science, University of California, Davis , Davis, CA , United States |
AuthorAffiliation_xml | – name: 1 Soil Science Department, Federal University of Lavras , Lavras , Brazil – name: 2 ICL South American , São Paulo , Brazil – name: 3 University of California, Handord—Agriculture and Natural Resources , Hanford, CA , United States – name: 4 Department of Plant Science, University of California, Davis , Davis, CA , United States |
Author_xml | – sequence: 1 givenname: Maila Adriely surname: Silva fullname: Silva, Maila Adriely – sequence: 2 givenname: Gustavo Ferreira surname: de Sousa fullname: de Sousa, Gustavo Ferreira – sequence: 3 givenname: Ana Paula Branco surname: Corguinha fullname: Corguinha, Ana Paula Branco – sequence: 4 givenname: Josimar Henrique surname: de Lima Lessa fullname: de Lima Lessa, Josimar Henrique – sequence: 5 givenname: Guilherme Soares surname: Dinali fullname: Dinali, Guilherme Soares – sequence: 6 givenname: Cynthia surname: Oliveira fullname: Oliveira, Cynthia – sequence: 7 givenname: Guilherme surname: Lopes fullname: Lopes, Guilherme – sequence: 8 givenname: Douglas surname: Amaral fullname: Amaral, Douglas – sequence: 9 givenname: Patrick surname: Brown fullname: Brown, Patrick – sequence: 10 givenname: Luiz Roberto Guimarães surname: Guilherme fullname: Guilherme, Luiz Roberto Guimarães |
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Copyright | Copyright © 2022 Silva, de Sousa, Corguinha, de Lima Lessa, Dinali, Oliveira, Lopes, Amaral, Brown and Guilherme. Copyright © 2022 Silva, de Sousa, Corguinha, de Lima Lessa, Dinali, Oliveira, Lopes, Amaral, Brown and Guilherme. 2022 Silva, de Sousa, Corguinha, de Lima Lessa, Dinali, Oliveira, Lopes, Amaral, Brown and Guilherme |
Copyright_xml | – notice: Copyright © 2022 Silva, de Sousa, Corguinha, de Lima Lessa, Dinali, Oliveira, Lopes, Amaral, Brown and Guilherme. – notice: Copyright © 2022 Silva, de Sousa, Corguinha, de Lima Lessa, Dinali, Oliveira, Lopes, Amaral, Brown and Guilherme. 2022 Silva, de Sousa, Corguinha, de Lima Lessa, Dinali, Oliveira, Lopes, Amaral, Brown and Guilherme |
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Notes | ObjectType-Article-1 SourceType-Scholarly Journals-1 ObjectType-Feature-2 content type line 23 Edited by: Gary Bañuelos, USDA, United States This article was submitted to Plant Nutrition, a section of the journal Frontiers in Plant Science Reviewed by: Yuan Linxi, Xi'an Jiaotong-Liverpool University, China; José Lavres Junior, University of São Paulo, Brazil |
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Title | Selenium biofortification of soybean genotypes in a tropical soil via Se-enriched phosphate fertilizers |
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