Vectorizing agrochemicals: enhancing bioavailability via carrier‐mediated transport

Systemicity of agrochemicals is an advantageous property for controlling phloem sucking insects, as well as pathogens and pests not accessible to contact products. After the penetration of the cuticle, the plasma membrane constitutes the main barrier to the entry of an agrochemical into the sap flow...

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Veröffentlicht in:Pest management science 2019-06, Vol.75 (6), p.1507-1516
Hauptverfasser: Wu, Hanxiang, Xu, Hanhong, Marivingt‐Mounir, Cécile, Bonnemain, Jean‐Louis, Chollet, Jean‐François
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container_end_page 1516
container_issue 6
container_start_page 1507
container_title Pest management science
container_volume 75
creator Wu, Hanxiang
Xu, Hanhong
Marivingt‐Mounir, Cécile
Bonnemain, Jean‐Louis
Chollet, Jean‐François
description Systemicity of agrochemicals is an advantageous property for controlling phloem sucking insects, as well as pathogens and pests not accessible to contact products. After the penetration of the cuticle, the plasma membrane constitutes the main barrier to the entry of an agrochemical into the sap flow. The current strategy for developing systemic agrochemicals is to optimize the physicochemical properties of the molecules so that they can cross the plasma membrane by simple diffusion or ion trapping mechanisms. The main problem with current systemic compounds is that they move everywhere within the plant, and this non‐controlled mobility results in the contamination of the plant parts consumed by vertebrates and pollinators. To achieve the site‐targeted distribution of agrochemicals, a carrier‐mediated propesticide strategy is proposed in this review. After conjugating a non‐systemic agrochemical with a nutrient (α‐amino acids or sugars), the resulting conjugate may be actively transported across the plasma membrane by nutrient‐specific carriers. By applying this strategy, non‐systemic active ingredients are expected to be delivered into the target organs of young plants, thus avoiding or minimizing subsequent undesirable redistribution. The development of this innovative strategy presents many challenges, but opens up a wide range of exciting possibilities. © 2018 Society of Chemical Industry Non‐systemic agrochemicals conjugated to an α‐amino acid or glucose can cross the plasma membrane via an active transport mechanism to be transported at long distance in the phloem sap flow.
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subjects agrochemical vectorization
Agrochemicals
Agrochemicals - chemistry
Agrochemicals - metabolism
Agrochemicals - pharmacokinetics
Amino acids
Animals
Bioavailability
Biological Availability
Biological Transport
carrier‐mediated transport
Chemical Sciences
Contamination
Drug Carriers - chemistry
Drug Carriers - metabolism
Insects
Life Sciences
Nutrients
Organic chemistry
Organs
Pests
phloem transport
Physicochemical properties
Phytopathology and phytopharmacy
plant transporters
Plants - metabolism
Pollinators
Prodrugs - metabolism
propesticide
Strategy
Sugar
systemicity
Vegetal Biology
Vertebrates
title Vectorizing agrochemicals: enhancing bioavailability via carrier‐mediated transport
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