Optical properties of novel luminescent nacre‐like epoxy/graphene nanocomposite coating integrated with lanthanide‐activated aluminate nanoparticles

Nacre structure has aragonite polygonal tablets, tessellated to generate separate layers, and exhibits adjacent layers and tablets within a layer bonded by a biopolymer. Here, we report the development of a nacre‐like organic/inorganic hybrid nanocomposite coating consisting of epoxy tablets as well...

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Veröffentlicht in:Luminescence (Chichester, England) England), 2022-09, Vol.37 (9), p.1482-1491
Hauptverfasser: Snari, Razan M., Alzahrani, Seraj Omar, Katouah, Hanadi A., Alkhamis, Kholood, Alaysuy, Omaymah, Abumelha, Hana M., El‐Metwaly, Nashwa M.
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container_end_page 1491
container_issue 9
container_start_page 1482
container_title Luminescence (Chichester, England)
container_volume 37
creator Snari, Razan M.
Alzahrani, Seraj Omar
Katouah, Hanadi A.
Alkhamis, Kholood
Alaysuy, Omaymah
Abumelha, Hana M.
El‐Metwaly, Nashwa M.
description Nacre structure has aragonite polygonal tablets, tessellated to generate separate layers, and exhibits adjacent layers and tablets within a layer bonded by a biopolymer. Here, we report the development of a nacre‐like organic/inorganic hybrid nanocomposite coating consisting of epoxy tablets as well as rare‐earth‐activated aluminate and graphene oxide tablet/tablet interfaces. The lanthanide‐activated aluminate was prepared using a high temperature solid‐state approach followed by top‐down technology to provide the phosphor nanoparticles (PNPs). Graphene oxide nanosheets were prepared from graphite. The prepared epoxy/graphene/phosphor nanocomposites were applied onto mild steel. Covalent bonds were formed between epoxy polymer chains resin and the graphene oxide nanosheets. These interface interactions resulted in a tough surface, high tensile strength, and excellent durability. The use of phosphor in the nanoparticle form guaranteed that no agglomerations were produced throughout the hardening procedure by allowing better distribution of PNPs in the nacre‐like matrix. The generated nacre‐like substrates displayed reversible fluorescence. The excitation of the white coloured nacre‐like coats at 367 nm resulted in a green emission band at 518 nm as designated by the Commission Internationale de l'éclairage (CIE) Laboratory and photoluminescence spectra. Various analysis methods were utilized to inspect the surface structure and elemental composition of the nacre‐like coats. An improved hydrophobicity and mechanical characteristics were detected when increasing the phosphor concentration. Due to the astonishing characteristics of the prepared nacre‐like composite paint, both ceramics and metals can benefit from the current simple strategy. Epoxy resin and graphene oxide nanosheets were mixed with phosphor nanoparticles (NPs) at 25°C. Transparent photoluminescent nacre‐like nanocomposite paint was developed. The nacre‐like nanocomposite coats exhibit high hardness and hydrophobicity. Photochromism to green emission was observed under ultraviolet irradiation. Long‐persistent phosphorescence was mentored in the dark with high photostability.
doi_str_mv 10.1002/bio.4321
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source Wiley Online Library Journals Frontfile Complete
subjects Aragonite
Biopolymers
Calcium carbonate
Ceramics
Chemical composition
Colour
Composite materials
Covalent bonds
Epoxy compounds
epoxy resin
Fluorescence
Graphene
graphene oxide nanosheets
Graphite fiber reinforced plastics
Graphite-epoxy composites
High temperature
Hydrophobicity
Interfaces
Low carbon steels
Mechanical properties
Metals
Nacre
Nanocomposites
Nanoparticles
Nanostructure
Optical properties
Phosphors
Photoluminescence
photoluminescent
Photons
Polymers
smart nacre‐like coating
Substrates
superhydrophobic
Surface structure
Tablets
Tensile strength
title Optical properties of novel luminescent nacre‐like epoxy/graphene nanocomposite coating integrated with lanthanide‐activated aluminate nanoparticles
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