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Controlled release and nanotechnology techniques hold promising potential for propelling the pesticide industry toward the goals of green revolution. This study introduces the concept of atom economy into the multifunctionality of controlled‐release formulations (CRFs) of pesticides from both economic and sustainable perspectives. In addition to their core function of controlling the release of active ingredient, carriers also provide additional benefits, including enhanced foliar adhesion and pesticide translocation, nutritional function, synergistic bioactivity, safety for nontarget organisms, crop stress alleviation, reduced soil leaching, soil remediation, and fluorescence visualization. These additional functions are highlighted and taken seriously. Through ingenious excogitation, the multifunctional CRFs of pesticides can achieve multiple objectives, enhancing input efficiency while minimizing environmental impacts. We tentatively blazed a trail by reviewing the recent advances in multifunctional CRFs of pesticides from the perspective of green chemistry. Additionally, potential development and implementation barriers of CRFs were discussed, emphasizing the necessity for robust field trials and comprehensive systems‐level efficacy/biosafety evaluations to substantially boost the technical readiness and performance of multifunctional CRFs of pesticides. Our goal is to expand the multifunctional concept for pesticide formulations, thereby accelerating the development of global sustainable agrochemical products.
Controlled release and nanotechnology techniques hold promising potential for propelling the pesticide industry toward the goals of green revolution. This study introduces the concept of atom economy into the multifunctionality of controlled‐release formulations (CRFs) of pesticides from both economic and sustainable perspectives. In addition to their core function of controlling the release of active ingredient, carriers also provide additional benefits, including enhanced foliar adhesion and pesticide translocation, nutritional function, synergistic bioactivity, safety for nontarget organisms, crop stress alleviation, reduced soil leaching, soil remediation, and fluorescence visualization. These additional functions are highlighted and taken seriously. Through ingenious excogitation, the multifunctional CRFs of pesticides can achieve multiple objectives, enhancing input efficiency while minimizing environmental impacts. We tentatively blazed a trail by reviewing the recent advances in multifunctional CRFs of pesticides from the perspective of green chemistry. Additionally, potential development and implementation barriers of CRFs were discussed, emphasizing the necessity for robust field trials and comprehensive systems‐level efficacy/biosafety evaluations to substantially boost the technical readiness and performance of multifunctional CRFs of pesticides. Our goal is to expand the multifunctional concept for pesticide formulations, thereby accelerating the development of global sustainable agrochemical products.
An ideal green leaf-deposited pesticide formulation should offer advantages such as good water dispersibility, strong foliar affinity, sustained or controlled release of active ingredients, photostability and rainfastness, minimal nontarget toxicity, use of nontoxic organic solvents, and degradable adjuvants. In line with this objective, we present green preparation of a colloidal pesticide formulation using optimized lysine-derived carbon dots (LysCDs)-modified CaCO 3 (LysCDs/CaCO 3 ) particles as the carrier and abamectin (Abm) as the active ingredient. The loading capacity of abamectin in this colloidal pesticide (LysCDs/CaCO 3 /Abm) is 1.7 to 2.1 times higher than that of its counterpart (CaCO 3 /Abm) prepared without LysCDs, which is attributed to the increased specific surface area and pore volume of LysCDs/CaCO 3 particles. Due to the acid-induced degradation of CaCO 3 , the release of abamectin for LysCDs/CaCO 3 /Abm is accelerated under weakly acidic conditions, which is accompanied by the release of Ca 2+ ions and the fluorescence changes of LysCDs. The incorporation of LysCDs enhances the photostability and foliar adhesiveness of this colloidal pesticide, resulting in the highest degree of foliar retention when exposed to ultraviolet (UV) light or rainfall, compared to free-form abamectin and CaCO 3 /Abm. This results in the best performance of pest control on Plutella xylostella for LysCDs/CaCO 3 /Abm in both indoor and outdoor tests. Nontarget biocompatibility evaluations show that LysCDs/CaCO 3 /Abm exhibits lower acute toxicity to zebrafish and earthworms than free-form abamectin. In addition, this colloidal pesticide is favored by the minimal residue of the adjuvant material after abamectin release, which is converted into harmless Ca 2+ ions, CO 2 , and LysCDs. Therefore, this work designs a safer and more effective colloidal pesticide formulation to deliver abamectin with minimal adjuvant residue, realizing its trajectory as basically "circular and green".
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