Refereed journal article or data article (A1)

Catalytic conversion of glucose to methyl levulinate over metal-modified Beta zeolites




List of AuthorsAho Atte, Kumar Narendra, Eränen Kari, Mäki-Arvela Päivi, Salmi Tapio, Peurla Markus, Angervo Ilari, Hietala Jukka, Murzin Dmitry Yu

PublisherSPRINGER

Publication year2022

JournalReaction Kinetics, Mechanisms and Catalysis

Journal name in sourceREACTION KINETICS MECHANISMS AND CATALYSIS

Journal acronymREACT KINET MECH CAT

Volume number135

Issue number4

Start page1971

End page1986

Number of pages16

ISSN1878-5190

eISSN1878-5204

DOIhttp://dx.doi.org/10.1007/s11144-022-02225-7

URLhttps://link.springer.com/article/10.1007/s11144-022-02225-7

Self-archived copy’s web addresshttps://research.utu.fi/converis/portal/detail/Publication/175951164


Abstract
Methyl levulinate was selectively formed from glucose and methanol over a copper modified Beta zeolite bifunctional catalyst at 180 degrees C under argon atmosphere. The selectivity to methyl levulinate substantially exceeded previously reported in the open literature results. The copper modification was done through an ion-exchange method using a solution of copper nitrate, followed by drying and calcination of the catalyst. Copper modification changed the distribution of acid sites namely, less Bronsted and more Lewis sites were observed with FTIR using pyridine adsorption. Application of the proton form H-Beta-25 gave the methyl levulinate yield of ca. 89%, which could be elevated with the addition of copper, as the apparent selectivity exceeds 99%, assuming that methyl glucosides are eventually transformed to methyl levulinate. The non-acidic Cu/SiO2 catalyst was completely inactive in methyl levulinate formation. Metal modification of Beta zeolite with Sn and Zn did not perform as well as Cu in the formation of methyl levulinate during glucose transformation.

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Last updated on 2022-16-08 at 13:29