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生物质混合物催化快速热解生物油及其各馏分的特性研究。

Characterisation of bio-oil and its sub-fractions from catalytic fast pyrolysis of biomass mixture.

机构信息

Department of Chemistry, Karadeniz Technical University, Trabzon, Turkey.

出版信息

Waste Manag Res. 2019 Jul;37(7):674-685. doi: 10.1177/0734242X19838608. Epub 2019 Apr 10.

DOI:10.1177/0734242X19838608
PMID:30967100
Abstract

The present study aim is to characterise catalytic and non-catalytic biomass pyrolysis liquid products. Turkey is the world's largest hazelnut producer and also ranks fifth in tea production, so a mixture of hazelnut shell, tea bush and hazelnut knot was selected as the biomass sample, and vanadium pentoxide (VO) was also used as a catalyst. Considering the biomass mixture and catalyst used, this research is unique for the literature. Bio-oils, which are obtained by catalytic and non-catalytic processes and collected in two sub-fractions, were characterised. The sub-fractions of toluene and ethyl acetate, there was a significant increase in calorific values compared with the mixture without catalyst, because of the decrease in the amount of oxygen and increase in the amount of carbon. The increase in this calorific value in the toluene sub-fraction is about 76% higher than the raw material mixture. In the sub-fractions of toluene and ethyl acetate produced by catalytic pyrolysis, an increase in carbon content was observed when compared with non-catalytic products, while the amounts of oxygen decreased. Considering the results, the toluene sub-fraction is generally composed of phenolic structures. Generally, the ethyl acetate sub-fraction comprises the carbonyl group - containing ketone and aldehyde structures as well as aromatic and phenolic compounds. The resulting bio-oil has the potential to be used as a liquid fuel both in terms of calorific values and in terms of the H/C and O/C ratio.

摘要

本研究旨在对催化和非催化生物质热解液体产物进行特性分析。土耳其是世界上最大的榛子生产国,茶叶产量也位居世界第五,因此选择榛子壳、茶树和榛子结的混合物作为生物质样品,并使用五氧化二钒 (VO) 作为催化剂。考虑到使用的生物质混合物和催化剂,这在文献中是独特的研究。通过催化和非催化过程获得并收集在两个亚组分中的生物油进行了特性分析。与无催化剂的混合物相比,甲苯和乙酸乙酯亚组分的热值有显著增加,这是由于氧含量减少和碳含量增加所致。甲苯亚组分的这种热值增加比原料混合物高约 76%。在催化热解产生的甲苯和乙酸乙酯亚组分中,与非催化产物相比,观察到碳含量增加,而氧含量减少。考虑到这些结果,甲苯亚组分通常由酚类结构组成。通常,乙酸乙酯亚组分包含羰基 - 含酮和醛结构以及芳香族和酚类化合物。所得生物油具有作为液体燃料的潜力,无论是在热值方面还是在 H/C 和 O/C 比方面。

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