Fibrous phosphosilicate with highly dispersed poly(ionic liquids) as a nanocatalyst for production of biopolymer from limonene epoxide and CO2

In this study, we developed nano accelerators with a broad range by utilizing the interaction between tetraethyl orthosilicate (TEOS) and tripolyphosphate (TPP), followed by attaching poly(ionic liquids) to the click-modified ligand of fibrous phosphosilicate (FPS). This process led to the uniform distribution of poly(ionic liquids) without any aggregation, forming PILs-FPS. This material was then applied as a green catalyst for producing cyclic carbonate from limonene epoxide and CO 2 under eco-friendly conditions. Subsequently, we synthesized a polymer from the natural cyclic carbonate obtained. The reaction between CO 2 and highly substituted epoxides from sustainable sources like waste limonene produced novel bio-based cyclic carbonates. The reaction took place under mild, solvent-free conditions using PILs-FPS as the catalyst. The fibrous FPS structures enhanced adsorption capacity and facilitated the recovery of the catalyst without significant loss of activity. The products were easily separated from the environmentally conscious setting, and the catalyst was reused multiple times without a notable decrease in performance or selectivity. • The resulting nanofibers formed an FPS nanocomposite with poly(ionic liquids). • PILs-FPS demonstrates exceptional efficiency in producing biopolymer from CO2 and limonene epoxide. • PILs-FPS can be reused for up to ten cycles without altering its properties.

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Publication Details

Journal
Journal of CO2 Utilization
Published
2024-11-23
DOI
https://doi.org/10.1016/j.jcou.2024.102978
Citations
4
Primary Topic
Carbon dioxide utilization in catalysis
Type
article
Field-Weighted Citation Impact
0.71
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article

Fibrous phosphosilicate with highly dispersed poly(ionic liquids) as a nanocatalyst for production of biopolymer from limonene epoxide and CO2

Mohammad Hassan Moradi, Malihesadat Hosseiny, Rahele Zhiani, Susan Khosroyar et al.
4 citations
Journal of CO2 Utilization
Carbon dioxide utilization in catalysis
0.71
article

Fibrous phosphosilicate with highly dispersed poly(ionic liquids) as a nanocatalyst for production of biopolymer from limonene epoxide and CO2

Mohammad Hassan Moradi, Malihesadat Hosseiny, Rahele Zhiani, Susan Khosroyar, Zohreh Ebrahimi, Naser Monavari
article en
4 citations

Abstract

In this study, we developed nano accelerators with a broad range by utilizing the interaction between tetraethyl orthosilicate (TEOS) and tripolyphosphate (TPP), followed by attaching poly(ionic liquids) to the click-modified ligand of fibrous phosphosilicate (FPS). This process led to the uniform distribution of poly(ionic liquids) without any aggregation, forming PILs-FPS. This material was then applied as a green catalyst for producing cyclic carbonate from limonene epoxide and CO 2 under eco-friendly conditions. Subsequently, we synthesized a polymer from the natural cyclic carbonate obtained. The reaction between CO 2 and highly substituted epoxides from sustainable sources like waste limonene produced novel bio-based cyclic carbonates. The reaction took place under mild, solvent-free conditions using PILs-FPS as the catalyst. The fibrous FPS structures enhanced adsorption capacity and facilitated the recovery of the catalyst without significant loss of activity. The products were easily separated from the environmentally conscious setting, and the catalyst was reused multiple times without a notable decrease in performance or selectivity. • The resulting nanofibers formed an FPS nanocomposite with poly(ionic liquids). • PILs-FPS demonstrates exceptional efficiency in producing biopolymer from CO2 and limonene epoxide. • PILs-FPS can be reused for up to ten cycles without altering its properties.

Journal of CO2 UtilizationVol. 90
Islamic Azad University, Tehran (IR), University of Neyshabur (IR), Islamic Azad University of Nishapur (IR), Islamic Azad University Quchan (IR)
Openalex Percentile: Top 38%
Carbon dioxide utilization in catalysis
0.71
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