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A high-strength bonding, water-resistance, flame-retardant magnesium oxychloride cement based inorganic adhesive via the construction of supramolecular system

Magnesium oxychloride cement (MOC) adhesive has the advantages of being non-formaldehyde and flame retardant and having low energy consumption; however, its poor compatibility with the wood interface results in low bonding strength. Inspired by the H-bonded β-sheets nanoconfinement phase of spider s...

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Published in:Journal of cleaner production 2023-09, Vol.419, p.138239, Article 138239
Main Authors: Zhou, Wenguang, Ye, Qianqian, Zhou, Zhezhe, liu, Zheng, Aladejana, John Tosin, Cao, Jinfeng, Li, Jianzhang
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cited_by cdi_FETCH-LOGICAL-c309t-871a0377e08378d52d259f1d05afe1719b93ce82b5a5a40146b4849b5ec3d5623
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container_issue
container_start_page 138239
container_title Journal of cleaner production
container_volume 419
creator Zhou, Wenguang
Ye, Qianqian
Zhou, Zhezhe
liu, Zheng
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Cao, Jinfeng
Li, Jianzhang
description Magnesium oxychloride cement (MOC) adhesive has the advantages of being non-formaldehyde and flame retardant and having low energy consumption; however, its poor compatibility with the wood interface results in low bonding strength. Inspired by the H-bonded β-sheets nanoconfinement phase of spider silk, a high-performance inorganic adhesive was developed based on the supramolecular network system of poly (vinyl alcohol)/phytic acid (PVA/PA) with dissolved ions and the synchronous hydration process of MOC. Benefiting from the H-bond crosslinking and chelation confinement effects, the addition of PVA/PA enables MOC to penetrate steadily into the wood. Under this strategy, the compressive strength and softening coefficient of the modified MOC adhesive were 65.07 MPa and 0.84, which were 17.03% and 425% higher than the unmodified MOC adhesive, respectively. In addition, the MOC/PVA/PA adhesive achieved a wet shear strength of 2.02 MPa, 68.3% higher than that of the MOC adhesive. These results demonstrate that the MOC/PVA/PA adhesive would be a promising inorganic adhesive in wood-based building materials.
doi_str_mv 10.1016/j.jclepro.2023.138239
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Inspired by the H-bonded β-sheets nanoconfinement phase of spider silk, a high-performance inorganic adhesive was developed based on the supramolecular network system of poly (vinyl alcohol)/phytic acid (PVA/PA) with dissolved ions and the synchronous hydration process of MOC. Benefiting from the H-bond crosslinking and chelation confinement effects, the addition of PVA/PA enables MOC to penetrate steadily into the wood. Under this strategy, the compressive strength and softening coefficient of the modified MOC adhesive were 65.07 MPa and 0.84, which were 17.03% and 425% higher than the unmodified MOC adhesive, respectively. In addition, the MOC/PVA/PA adhesive achieved a wet shear strength of 2.02 MPa, 68.3% higher than that of the MOC adhesive. 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subjects Bionic structure
Bonding strength
Magnesium oxychloride inorganic adhesive
Nanoconfinement
Water resistance
title A high-strength bonding, water-resistance, flame-retardant magnesium oxychloride cement based inorganic adhesive via the construction of supramolecular system
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