Inorganic-organic nanocomposite networks: Structure, curing reaction, properties, and hard coating performance

This study reports the first structure and morphology details of octakis(acryloyloxypropyl)-octasilsesquioxane (POSS-Acryl8), a reactive inorganic-organic hybrid molecule, before and after photochemically crosslinked. POSS-Acryl8 was confirmed as an oblate ellipsoidal nanoparticle consisting of inor...

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Veröffentlicht in:Composites science and technology 2022-02, Vol.218, p.109112, Article 109112
Hauptverfasser: Ngoi, Kuan Hoon, Wong, Jia Chyi, Chia, Chin Hua, Jin, Kyeong Sik, Kim, Heesoo, Kim, Hong-Chul, Kim, Hyun-Joong, Ree, Moonhor
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container_start_page 109112
container_title Composites science and technology
container_volume 218
creator Ngoi, Kuan Hoon
Wong, Jia Chyi
Chia, Chin Hua
Jin, Kyeong Sik
Kim, Heesoo
Kim, Hong-Chul
Kim, Hyun-Joong
Ree, Moonhor
description This study reports the first structure and morphology details of octakis(acryloyloxypropyl)-octasilsesquioxane (POSS-Acryl8), a reactive inorganic-organic hybrid molecule, before and after photochemically crosslinked. POSS-Acryl8 was confirmed as an oblate ellipsoidal nanoparticle consisting of inorganic cage core (0.774 nm diameter) and chemically-bonded organic shell (1.447 nm thickness). The core volume fraction is only 0.95% in a single molecule, but drastically increases up to 18.8% in the neat bulk state and 31.9% in the photocured film state; the individual inorganic cores are eventually encapsulated with the networked shells (0.176 nm thickness) chemically interconnected with the neighbors. Based on such the highly networked structure and inorganic core reinforcement, the photocured POSS-Acryl8 exhibited exceptionally high optical transparency, glass transition temperature, surface hardness, and abrasion resistances. Due to the superior properties, clear hard POSS-Acryl8 coatings solved completely inherently poor surface hardness and abrasion resistances of conventional polymer window substrates and, furthermore, serious drawbacks in the eraser and steel wool abrasion resistances of glass window substrate. In addition, POSS-Acryl8 was found miscible with pentaerythritolylethyl tetraacrylate (PEEO-Acryl4) and thereby enhanced substantially the surface hardness and abrasion resistances of PEEO-Acryl4 through nanocomposite network formations. It turns out that the photocurable inorganic-organic POSS-Acryl8 hybrid and its composites with fully organic PEEO-Acryl4 are so suitable for optically clear hard top coating applications in advanced telecommunication, defense, automobile, and smart home appliance (smart and foldable phones, display devices, sensor windows, etc.). [Display omitted] •POSS-Acryl8 was structurally investigated as a single reactive inorganic-organic hybrid particle.•UV-cured POSS-Acryl8 coating demonstrated excellent performance in surface hardness.•Networked POSS-Acryl8 coating exhibited superior abrasion resistances.•POSS-Acryl8 was miscible with organic PEEO-Acryl4 resin, enhancing hard coating performance.•POSS-Acryl8 composite without and with organic PEEO-Acryl4 resin are suitable for hard coating applications.
doi_str_mv 10.1016/j.compscitech.2021.109112
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POSS-Acryl8 was confirmed as an oblate ellipsoidal nanoparticle consisting of inorganic cage core (0.774 nm diameter) and chemically-bonded organic shell (1.447 nm thickness). The core volume fraction is only 0.95% in a single molecule, but drastically increases up to 18.8% in the neat bulk state and 31.9% in the photocured film state; the individual inorganic cores are eventually encapsulated with the networked shells (0.176 nm thickness) chemically interconnected with the neighbors. Based on such the highly networked structure and inorganic core reinforcement, the photocured POSS-Acryl8 exhibited exceptionally high optical transparency, glass transition temperature, surface hardness, and abrasion resistances. Due to the superior properties, clear hard POSS-Acryl8 coatings solved completely inherently poor surface hardness and abrasion resistances of conventional polymer window substrates and, furthermore, serious drawbacks in the eraser and steel wool abrasion resistances of glass window substrate. In addition, POSS-Acryl8 was found miscible with pentaerythritolylethyl tetraacrylate (PEEO-Acryl4) and thereby enhanced substantially the surface hardness and abrasion resistances of PEEO-Acryl4 through nanocomposite network formations. It turns out that the photocurable inorganic-organic POSS-Acryl8 hybrid and its composites with fully organic PEEO-Acryl4 are so suitable for optically clear hard top coating applications in advanced telecommunication, defense, automobile, and smart home appliance (smart and foldable phones, display devices, sensor windows, etc.). 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Due to the superior properties, clear hard POSS-Acryl8 coatings solved completely inherently poor surface hardness and abrasion resistances of conventional polymer window substrates and, furthermore, serious drawbacks in the eraser and steel wool abrasion resistances of glass window substrate. In addition, POSS-Acryl8 was found miscible with pentaerythritolylethyl tetraacrylate (PEEO-Acryl4) and thereby enhanced substantially the surface hardness and abrasion resistances of PEEO-Acryl4 through nanocomposite network formations. It turns out that the photocurable inorganic-organic POSS-Acryl8 hybrid and its composites with fully organic PEEO-Acryl4 are so suitable for optically clear hard top coating applications in advanced telecommunication, defense, automobile, and smart home appliance (smart and foldable phones, display devices, sensor windows, etc.). 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POSS-Acryl8 was confirmed as an oblate ellipsoidal nanoparticle consisting of inorganic cage core (0.774 nm diameter) and chemically-bonded organic shell (1.447 nm thickness). The core volume fraction is only 0.95% in a single molecule, but drastically increases up to 18.8% in the neat bulk state and 31.9% in the photocured film state; the individual inorganic cores are eventually encapsulated with the networked shells (0.176 nm thickness) chemically interconnected with the neighbors. Based on such the highly networked structure and inorganic core reinforcement, the photocured POSS-Acryl8 exhibited exceptionally high optical transparency, glass transition temperature, surface hardness, and abrasion resistances. Due to the superior properties, clear hard POSS-Acryl8 coatings solved completely inherently poor surface hardness and abrasion resistances of conventional polymer window substrates and, furthermore, serious drawbacks in the eraser and steel wool abrasion resistances of glass window substrate. In addition, POSS-Acryl8 was found miscible with pentaerythritolylethyl tetraacrylate (PEEO-Acryl4) and thereby enhanced substantially the surface hardness and abrasion resistances of PEEO-Acryl4 through nanocomposite network formations. It turns out that the photocurable inorganic-organic POSS-Acryl8 hybrid and its composites with fully organic PEEO-Acryl4 are so suitable for optically clear hard top coating applications in advanced telecommunication, defense, automobile, and smart home appliance (smart and foldable phones, display devices, sensor windows, etc.). [Display omitted] •POSS-Acryl8 was structurally investigated as a single reactive inorganic-organic hybrid particle.•UV-cured POSS-Acryl8 coating demonstrated excellent performance in surface hardness.•Networked POSS-Acryl8 coating exhibited superior abrasion resistances.•POSS-Acryl8 was miscible with organic PEEO-Acryl4 resin, enhancing hard coating performance.•POSS-Acryl8 composite without and with organic PEEO-Acryl4 resin are suitable for hard coating applications.</abstract><cop>Barking</cop><pub>Elsevier Ltd</pub><doi>10.1016/j.compscitech.2021.109112</doi><orcidid>https://orcid.org/0000-0001-8940-5298</orcidid><orcidid>https://orcid.org/0000-0002-0134-9912</orcidid></addata></record>
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1879-1050
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source Elsevier ScienceDirect Journals
subjects Abrasion resistances
Abrasion resistant coatings
Abrasion resistant steels
Chemical bonds
Clear hard coating
Crosslinking polymerization
Diameters
Display devices
Glass substrates
Glass transition temperature
Hard surfacing
Household appliances
Molecules
Nanocomposites
Nanoparticles
Photochemistry
Photocurable inorganic-organic hybrid
Photocured morphology
Photocuring
Smart buildings
Surface hardness
Telephones
Thickness
title Inorganic-organic nanocomposite networks: Structure, curing reaction, properties, and hard coating performance
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