Highly water soluble agrichemicals by using engineered organic salts for reducing adverse environmental impacts

Although herbicides are essential for ensuring high crop yields, the development of sustainable formulations remains a challenge in modern agriculture. Herbicide use is typically affected by the poor water solubility of the compounds they contain, and so they are often applied at very high doses tha...

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Veröffentlicht in:Green chemistry : an international journal and green chemistry resource : GC 2019, Vol.21 (23), p.6419-6429
Hauptverfasser: Carvalho, Paulo S, Guimarães, Gelton G. F, Diniz, Luan F, Ellena, Javier, Ribeiro, Caue
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container_issue 23
container_start_page 6419
container_title Green chemistry : an international journal and green chemistry resource : GC
container_volume 21
creator Carvalho, Paulo S
Guimarães, Gelton G. F
Diniz, Luan F
Ellena, Javier
Ribeiro, Caue
description Although herbicides are essential for ensuring high crop yields, the development of sustainable formulations remains a challenge in modern agriculture. Herbicide use is typically affected by the poor water solubility of the compounds they contain, and so they are often applied at very high doses that exceed those needed for weed control (WC). Highly soluble herbicides allow application without the excessive formation of undissolved solids, but only a few routes have been developed for this purpose. Herein, a crystal engineering approach is presented for improving the solubility of the herbicide ametryn (AMT). Organic salts of AMT with fumaric acid (m.p. ∼ 135 °C) and maleic acid (m.p. ∼ 125 °C) were successfully prepared, providing substantial improvement in the solubility (10-fold and 20-fold, respectively), compared to pure AMT, along with thermal stability. Herbicidal activity tests confirmed the effectiveness of these systems, which showed good WC performance at 1 kg ha −1 , considerably below the 2.5 kg ha −1 for AMT. The results demonstrate that these systems offer an accessible technology for reducing the use of AMT in agricultural practices and a strategy for the design of new WC chemistries. Enhanced water-solubility of ametryn herbicide is achieved by means of crystal engineering approach, providing an alternative for the production of reduced and high efficiency agrochemical dosage formulations.
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Organic salts of AMT with fumaric acid (m.p. ∼ 135 °C) and maleic acid (m.p. ∼ 125 °C) were successfully prepared, providing substantial improvement in the solubility (10-fold and 20-fold, respectively), compared to pure AMT, along with thermal stability. Herbicidal activity tests confirmed the effectiveness of these systems, which showed good WC performance at 1 kg ha −1 , considerably below the 2.5 kg ha −1 for AMT. The results demonstrate that these systems offer an accessible technology for reducing the use of AMT in agricultural practices and a strategy for the design of new WC chemistries. 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source Royal Society Of Chemistry Journals 2008-; Alma/SFX Local Collection
subjects Agricultural practices
Agrochemicals
Crop yield
Crystallography
Environmental impact
Formulations
Fumaric acid
Green chemistry
Herbicides
Maleic acid
Organic chemistry
Organic salts
Salts
Solubility
Sustainable development
Sustainable yield
System effectiveness
Thermal stability
Weed control
title Highly water soluble agrichemicals by using engineered organic salts for reducing adverse environmental impacts
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