An interconversion of oxazoline‐amido‐phenolate aluminium complexes: Structural, catalytic activity and density functional theory studies

This paper describes a new mutual transformation mode occurred between two aluminium complexes, L1(AlMe2)2·AlMe3 and (L1AlMe)2, which were generated upon different solvents and bearing the oxazoline‐amido‐phenolate ligand. Density functional theory (DFT) studies support plausible mechanisms. Their c...

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Veröffentlicht in:Applied organometallic chemistry 2021-07, Vol.35 (7), p.n/a
Hauptverfasser: Chen, Ming‐Tsz, Chen, Yu‐Yang, Huang, Ting‐Hsun, Pi, Hui‐Chu, Hu, Ching‐Han, Chen, Chi‐Tien
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container_title Applied organometallic chemistry
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Chen, Yu‐Yang
Huang, Ting‐Hsun
Pi, Hui‐Chu
Hu, Ching‐Han
Chen, Chi‐Tien
description This paper describes a new mutual transformation mode occurred between two aluminium complexes, L1(AlMe2)2·AlMe3 and (L1AlMe)2, which were generated upon different solvents and bearing the oxazoline‐amido‐phenolate ligand. Density functional theory (DFT) studies support plausible mechanisms. Their catalytic studies were investigated towards ring opening polymerization of ε‐caprolactone and l‐lactide with the benzyl alcohol as the initiating reagent. Two different types of aluminium complexes, L1(AlMe2)2·AlMe3 and (L1AlMe)2 bearing the oxazolineamido‐phenolate ligand were generated upon different solvent synthetic routes. A new round transformation mode between these aluminium complexes as well as the DFT study supported a plausible mechanism. Their catalytic activities towards the ring opening polymerization of ε‐caprolactone and l‐lactide in the presence of benzyl alcohol were investigated.
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subjects aluminium complexes
Aluminum
Benzyl alcohol
Catalytic activity
Chemistry
density functional calculations
Density functional theory
Reagents
Ring opening polymerization
solvent‐induced
transformation
title An interconversion of oxazoline‐amido‐phenolate aluminium complexes: Structural, catalytic activity and density functional theory studies
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