Highly efficient isomerization of glucose to fructose over Sn-doped silica nanotube

Yajiao Cui , Zhi Yang , Xiongtao Hu , Shufei Yang , Armin Rezayan , Tianliang Lu , Zhiyong Chen , Yongsheng Zhang
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Abstract

Isomerization of glucose to fructose is a fundamental and key intermediate process commonly included in the production of valuable chemicals from carbohydrates in biorefinery. Enhancement of fructose yield is a challenge. In this work, Sn-doped silica nanotube (Sn-SNT) was developed as a highly efficient Lewis acid catalyst for the selective isomerization of glucose to fructose. Over Sn-SNT, 69.1 % fructose yield with 78.5 % selectivity was obtained after reaction at 110 °C for 6 h. The sole presence of a large amount of Lewis acid sites in Sn-SNT without Brønsted acid site is one of the reasons for the high fructose yield and selectivity. Otherwise, high density of Si−OH groups in Sn-SNT can ensure the presence of Si−OH groups near the Sn sites, which is important for the isomerization of glucose to fructose, leading to the high fructose yield and selectivity. Furthermore, the Sn-SNT is recyclable.

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在掺锡二氧化硅纳米管上将葡萄糖高效异构化为果糖
葡萄糖异构化为果糖是生物精炼中利用碳水化合物生产有价值化学品的一个基本和关键的中间过程。提高果糖产量是一项挑战。在这项研究中,掺杂了锡的二氧化硅纳米管(Sn-SNT)被开发成一种高效的路易斯酸催化剂,用于将葡萄糖选择性异构化为果糖。在 Sn-SNT 上,110 °C、6 小时的反应可获得 69.1 % 的果糖产量和 78.5 % 的选择性。此外,Sn-SNT 中高密度的 Si-OH 基团可以确保在 Sn 位点附近存在 Si-OH 基团,这对于葡萄糖向果糖的异构化非常重要,从而导致果糖的高产率和高选择性。此外,Sn-SNT 还具有可回收性。
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Outside Front Cover Table of Contents Outside Back Cover On controllability of fluidized bed reduction of iron ore by CH4 for selective formation of magnetite Organics-based Aqueous Batteries: Concept for Stationary Energy Storage with Resource Feasibility
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