Porous nanomaterials: Main vein of agricultural nanotechnology

Sharma, Sandeep; Sahu, Bandana Kumari; Cao, Lidong; Bindra, Pulkit; Kaur, Kamaljit; Chandel, Mahima; Koratkar, Nikhil; Huang, Qing‐An; Shanmugam, Vijayakumar

doi:10.1016/j.pmatsci.2021.100812

Cited by 65 publications

(42 citation statements)

References 386 publications

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“…Our findings demonstrate that the chosen SNNMs from Romanian quarries have features similar to those of other natural materials used for plant treatment, natural zeolites [54] or diatomaceous earth [55]. The nanoporous structure of these natural materials, with active surface binding hydrophilic molecules and cations, make them suitable as carriers for agrochemicals [56].…”

Section: Discussionmentioning

confidence: 56%

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Effects of Siliceous Natural Nanomaterials Applied in Combination with Foliar Fertilizers on Physiology, Yield and Fruit Quality of the Apricot and Peach Trees

Moale¹,

Ghiurea

Sîrbu³

et al. 2021

Plants

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Siliceous natural nanomaterials (SNNMs), i.e., diatomaceous earth and natural zeolites, have a nanoporous structure with large active surfaces that adsorb cations or polarized molecules. Such nanoporous feature determines the effects related to SNNM utilization as low-risk plant protectants and soil improvers. This work used SNNMs from Romanian quarries as carriers for foliar fertilizers applied to stone-fruit trees, apricot and peach. We determined the effects of SNNMs on the physiology, yield and fruit quality of the treated stone-fruit trees. SNNM application determined impacts specific to the formation of particle films on leaves: reduced leaf temperature (up to 4.5 °C) and enhanced water use efficiency (up to 30%). Foliar fertilizers’ effects on yield are amplified by their application with SNNMs. Yield is increased up to 8.1% by the utilization of SNNMs with foliar fertilizers, compared to applying foliar fertilizer alone. Diatomaceous earth and natural zeolites promote the accumulation of polyphenols in apricot and peach fruits. The combined application of SNNMs and foliar fertilizer enhance the performance of peach and apricot trees.

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Section: Discussionmentioning

confidence: 56%

“…Porous nanomaterial was described recently as the "main vein of agricultural nanotechnology" [56]. Despite its nanoporous nature, diatomaceous earth was less considered as a nano-carrier for the fertilizers.…”

Section: Discussionmentioning

confidence: 99%

Effects of Siliceous Natural Nanomaterials Applied in Combination with Foliar Fertilizers on Physiology, Yield and Fruit Quality of the Apricot and Peach Trees

Moale¹,

Ghiurea

Sîrbu³

et al. 2021

Plants

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“… 7 − 10 As a hopeful alternative, modified mesoporous silica nanoparticles (MSNs) offer incomparable characteristics as pesticide carriers, such as high stability, biocompatibility, simple fabrication, high loading efficiency, protection of nontargeted microorganisms from pesticide unintentional release, and its ability to connect triggering materials on their exteriors that operate as gatekeepers to control loaded pesticide release. 11 − 14 Furthermore, smaller MSNs can be delivered into vegetative vascular tissues, circumventing selective absorbability of roots. 15 Between all the innovative materials utilized in CRFs, 3 , 16 , 17 materials that have sensitivity to enzymes can be considered as the most suitable capping materials for allowing pesticides to be released from the nanoparticles only when specified pests are present.…”

Section: Introductionmentioning

confidence: 99%

β-Glucan-Functionalized Mesoporous Silica Nanoparticles for Smart Control of Fungicide Release and Translocation in Plants

et al. 2022

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In this work, an enzyme-responsive nanovehicle for improving captan (CAP) contact fungicide bioactivity and translocation in plant tissues was synthesized (CAP-MSNs-β-glucan) by attaching β-glucan to the outer surface of mesoporous silica nanoparticles. CAP-MSNs-β-glucan properties were tested by FTIR, ζ-potential, DLS, XRD, TGA, FE-SEM, and HR-TEM. Cargo protection ability of CAP-MSNs-β-glucan from photolysis and hydrolysis was examined in comparison to CAP commercial formulation (CAP-CF). CAP-MSNs-β-glucan distribution in plant tissues, bioactivity against Fusarium graminearum , and biotoxicity toward zebrafish ( Danio rerio ) were tested and compared with that of CAP-CF. CAP-MSNs-β-glucan results showed good loading efficacy reaching 18.39% and enzymatic-release dependency up to 83.8% of the total cargo after 20 days of β-glucan unsealing. CAP-MSNs-β-glucan showed significant release protection under pH changes. MSNs-β-glucan showed excellent CAP protection from UV. CAP-MSNs-β-glucan showed better distribution in corn tissues and 1.28 more inhibiting potency to Fusarium graminearum than CAP-CF. CAP-MSNs-β-glucan showed 1.88 times lower toxicity than CAP-CF to zebrafish after 96 h of treatment. We recommend using such formulations to overcome shortcomings of contact fungicides and achieve better and sustainable farming.

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“…Porous nanomaterials have gained significant interest and are being studied extensively in this respect [15,16]. The unique microstructures of those porous materials have engrossed considerable attention as a functional material owing to their variety and better performance during applications in the area of catalysis [17], photocatalysis [18], separation [19], adsorption [20], energy storage and conversion [21], and sensing to physicochemical devices [22][23][24] in recent years. These materials are usually characterized for their porosity at macro-, meso-, and microscale, uniformity of pores, hierarchy and interconnection between each level of porosity, large accessible high surface areas, low density and excellent accommodation capability of other nanomaterials into the pore volumes, which enables the easy transport of ion/electron/reactant and the diffusion of mass, exposing boundless significance in applications requiring high accessible surface for reactions such as the energy density, rate capacity and cycling life in energy storage and modulation of electronic activities for sensing [25,26].…”

Section: Introductionmentioning

confidence: 99%

Fabrication of High Surface Area Microporous ZnO from ZnO/Carbon Sacrificial Composite Monolith Template

et al. 2022

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Fabrication of porous materials from the standard sacrificial template method allows metal oxide nanostructures to be produced and have several applications in energy, filtration and constructing sensing devices. However, the low surface area of these nanostructures is a significant drawback for most applications. Here, we report the synthesis of ZnO/carbon composite monoliths in which carbon is used as a sacrificial template to produce zinc oxide (ZnO) porous nanostructures with a high specific surface area. The synthesized porous oxides of ZnO with a specific surface area of 78 m2/g are at least one order of magnitude higher than that of the ZnO nanotubes reported in the literature. The crucial point to achieving this remarkable result was the usage of a novel ZnO/carbon template where the carbon template was removed by simple heating in the air. As a high surface area porous nanostructured ZnO, these synthesized materials can be useful in various applications including catalysis, photocatalysis, separation, sensing, solar energy harvest and Zn-ion battery and as supercapacitors for energy storage.

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Porous nanomaterials: Main vein of agricultural nanotechnology

Cited by 65 publications

References 386 publications

Effects of Siliceous Natural Nanomaterials Applied in Combination with Foliar Fertilizers on Physiology, Yield and Fruit Quality of the Apricot and Peach Trees

Effects of Siliceous Natural Nanomaterials Applied in Combination with Foliar Fertilizers on Physiology, Yield and Fruit Quality of the Apricot and Peach Trees

β-Glucan-Functionalized Mesoporous Silica Nanoparticles for Smart Control of Fungicide Release and Translocation in Plants

Fabrication of High Surface Area Microporous ZnO from ZnO/Carbon Sacrificial Composite Monolith Template

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