Corona discharge plasma application for the deposition of nanocomposite coatings

Tyurikov, K. S.; Alexandrov, Sergei; Iankevich, Gleb A.

doi:10.1016/j.matpr.2019.12.385

Cited by 4 publications

(4 citation statements)

References 20 publications

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“…In this section, we present the few but important feasibility studies that appeared in the literature on the AP plasma deposition of NC coatings from dry particle aerosols (i.e., gas-borne inorganic or polymeric NPs) in conjunction with conventional molecular precursors [61,91,99,[134][135][136][137]. The first study that used this approach was published in 2014 by Deng et al [61,134].…”

Section: Aerosols Of Dry Particlesmentioning

confidence: 99%

Section: Aerosols Of Dry Particlesmentioning

confidence: 99%

“…Interestingly, the works by Alexandrov et al [91] and Tyurikov et al [135] demonstrated the feasibility of a two-stage process for the deposition of NC coatings consisting of a molybdenum disulfide (MoS2) nanoparticles embedded in a silicon dioxide matrix (Figure 8). [91,135] for the AP deposition of inorganicNC coatings consisting of MoS2 NPs embedded in a SiO2 matrix (1, piezoelectric nebulizer; 2, quartz reactor; 3, heaters; 4, high-voltage corona electrode; 5, substrate plate). The MoS2 NPs are synthesized in the upper zone by spray-pyrolysis, while the lower zone is used for codepositing on the substrate surface the MoS2 NPs and a SiO2 layer formed by using a corona discharge fed with helium and TEOS.…”

Section: Aerosols Of Dry Particlesmentioning

confidence: 99%

“…Figure 8. (a) Schematic diagram of the two-zone vertical reactor used in[91,135] for the AP deposition of inorganicNC coatings consisting of MoS2 NPs embedded in a SiO2 matrix (1, piezoelectric nebulizer; 2, quartz reactor; 3, heaters; 4, high-voltage corona electrode; 5, substrate plate). The MoS2 NPs are synthesized in the upper zone by spray-pyrolysis, while the lower zone is used for codepositing on the substrate surface the MoS2 NPs and a SiO2 layer formed by using a corona discharge fed with helium and TEOS.…”

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Low-Temperature Atmospheric Pressure Plasma Processes for the Deposition of Nanocomposite Coatings

Uricchio

Fanelli

2021

Processes

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Low-temperature atmospheric pressure (AP) plasma technologies have recently proven to offer a range of interesting opportunities for the preparation of a variety of nanocomposite (NC) coatings with different chemical compositions, structures, and morphologies. Since the late 2000s, numerous strategies have been implemented for the deposition of this intriguing class of coatings by using both direct and remote AP plasma sources. Interestingly, considerable progress has been made in the development of aerosol-assisted deposition processes in which the use of either precursor solutions or nanoparticle dispersions in aerosol form allows greatly widening the range of constituents that can be combined in the plasma-deposited NC films. This review summarizes the research published on this topic so far and, specifically, aims to present a concise survey of the developed plasma processes, with particular focus on their optimization as well as on the structural and functional properties of the NC coatings to which they provide access. Current challenges and opportunities are also briefly discussed to give an outlook on possible future research directions.

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Section: Aerosols Of Dry Particlesmentioning

confidence: 99%

Section: Aerosols Of Dry Particlesmentioning

confidence: 99%

Section: Aerosols Of Dry Particlesmentioning

confidence: 99%

mentioning

confidence: 99%

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Low-Temperature Atmospheric Pressure Plasma Processes for the Deposition of Nanocomposite Coatings

Uricchio

Fanelli

2021

Processes

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Plasma catalysis: a feasible solution for carbon dioxide valorization?

Anoop

Suresh

Jha

et al. 2021

Clean Techn Environ Policy

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Degradation of Pesticide Residues in Water, Soil, and Food Products via Cold Plasma Technology

Sojithamporn,

Leksakul,

Sawangrat

et al. 2023

Foods

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Water, soil, and food products contain pesticide residues. These residues result from excessive pesticides use, motivated by the fact that agricultural productivity can be increased by the use of these pesticides. The accumulation of these residues in the body can cause health problems, leading to food safety concerns. Cold plasma technology has been successfully employed in various applications, such as seed germination, bacterial inactivation, wound disinfection, surface sterilization, and pesticide degradation. In recent years, researchers have increasingly explored the effectiveness of cold plasma technology in the degradation of pesticide residues. Most studies have shown promising outcomes, encouraging further research and scaling-up for commercialization. This review summarizes the use of cold plasma as an emerging technology for pesticide degradation in terms of the plasma system and configuration. It also outlines the key findings in this area. The most frequently adopted plasma systems for each application are identified, and the mechanisms underlying pesticide degradation using cold plasma technology are discussed. The possible factors influencing pesticide degradation efficiency, challenges in research, and future trends are also discussed. This review demonstrates that despite the nascent nature of the technology, the use of cold plasma shows considerable potential in regards to pesticide residue degradation, particularly in food applications.

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Corona discharge plasma application for the deposition of nanocomposite coatings

Cited by 4 publications

References 20 publications

Low-Temperature Atmospheric Pressure Plasma Processes for the Deposition of Nanocomposite Coatings

Low-Temperature Atmospheric Pressure Plasma Processes for the Deposition of Nanocomposite Coatings

Plasma catalysis: a feasible solution for carbon dioxide valorization?

Degradation of Pesticide Residues in Water, Soil, and Food Products via Cold Plasma Technology

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