An efficient removal mechanism for different hydrophilic antibiotics from aquatic environments by Cu–Al–Fe–Cr quasicrystals

Zhang, Lei; Ai, Tian; Tian, Xiaoxi; Dai, Shujuan

doi:10.1039/d1ra08095d

RSC Adv.

2022

DOI: 10.1039/d1ra08095d

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An efficient removal mechanism for different hydrophilic antibiotics from aquatic environments by Cu–Al–Fe–Cr quasicrystals

Lei Zhang

Tian Ai

Xiaoxi Tian

et al.

Abstract: Adsorption of three antibiotic drugs (ibuprofen, sulbactamsodium, and terdiazole phosphate) with different hydrophobicity by using Cu–Al–Fe–Cr quasicrystals with multilayer structure as the adsorbent was investigated.

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2024

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The Interfacial Reaction Traits of (Al63Cu25Fe12)99Ce1 Quasicrystal-Enhanced Aluminum Matrix Composites Produced by Means of Hot Pressing

Wang,

Yang

2024

Coatings

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This study fabricated (Al63Cu25Fe12)99Ce1 quasicrystal-enhanced aluminum matrix composites using the hot-pressing method to investigate their interfacial reaction traits. Microstructure analysis revealed that at 490 °C for 30 min of hot-pressing, the interface between the matrix and reinforcement was clear and intact. Chemical diffusion between the I-phase and aluminum matrix during sintering led to the formation of Al7Cu2Fe, AlFe, and AlCu phases, which, with their uniform and fine distribution, significantly enhanced the alloy’s overall properties. Regarding compactness, it first increased and then decreased with different holding times, reaching a maximum of about 98.89% at 490 °C for 30 min. Mechanical property analysis showed that compressive strength initially rose and then fell with increasing sintering temperature. After 30 min at 490 °C, the reinforcement particles and matrix were tightly combined and evenly distributed, with a maximum compressive strength of around 790 MPa. Additionally, the diffusion dynamics of the transition layer were simulated. The reaction rate of the reaction layer increased with hot-pressing temperature and decreased with holding time. Selecting a lower temperature and appropriate holding time can control the reaction layer thickness to obtain composites with excellent properties. This research innovatively contributes to the preparation and property study of such composites, providing a basis for their further application.

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The Interfacial Reaction Traits of (Al63Cu25Fe12)99Ce1 Quasicrystal-Enhanced Aluminum Matrix Composites Produced by Means of Hot Pressing

Wang,

Yang

2024

Coatings

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show abstract

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An efficient removal mechanism for different hydrophilic antibiotics from aquatic environments by Cu–Al–Fe–Cr quasicrystals

Abstract: Adsorption of three antibiotic drugs (ibuprofen, sulbactamsodium, and terdiazole phosphate) with different hydrophobicity by using Cu–Al–Fe–Cr quasicrystals with multilayer structure as the adsorbent was investigated.

Cited by 1 publication

References 44 publications

The Interfacial Reaction Traits of (Al63Cu25Fe12)99Ce1 Quasicrystal-Enhanced Aluminum Matrix Composites Produced by Means of Hot Pressing

The Interfacial Reaction Traits of (Al63Cu25Fe12)99Ce1 Quasicrystal-Enhanced Aluminum Matrix Composites Produced by Means of Hot Pressing

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