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利用各种吸收剂通过低温微波辅助热解橄榄修剪残余物来对生物油和生物炭进行特性描述。

Characterization of bio-oil and bio-char produced by low-temperature microwave-assisted pyrolysis of olive pruning residue using various absorbers.

机构信息

Department of Chemistry, University of Florence, Italy.

CNR-IVALSA, Florence, Italy.

出版信息

Waste Manag Res. 2020 Feb;38(2):213-225. doi: 10.1177/0734242X19865342. Epub 2019 Aug 14.

DOI:10.1177/0734242X19865342
PMID:31409255
Abstract

Olive pruning residue is largely formed during cultivation, and is usually disposed through open-air combustion directly in the field, but this habit is a possible source of pollution. The pyrolytic conversion of olive pruning residue has been run in a new and very appealing way using microwave as a heating source and different microwave absorbers in a multimode batch reactor. In this way, olive residue is converted into interesting bio-chemical products with a short pyrolysis time, ranging from 15 to 36 min, and with a peak temperature ranging from 450 K to 705 K according to the different microwave absorber. Thus, a very efficient and selective system was realized, which was able to address the process towards the formation of a large amount of bio-char (up to 61.2%) or a high formation of bio-oil (56.2%) and gas (41.7%) with a very low formation of bio-char (2.1%). However, when carbon and iron were used as microwave absorbers, it was possible to obtain an intermediate amount of bio-char (26-30%) and bio-oil (40 wt%). Bio-oils were collected as dark-brown liquids with low viscosity and density. A bio-oil with a low water concentration was obtained using carbon or iron as the microwave absorber. The bio-oils formed in all experiments contained a very large amount of acetic acid, even when NaOH was the microwave absorber. Furthermore, a large amount of aromatics were present in the bio-oil obtained using carbon as the microwave absorber.

摘要

橄榄修剪残余物主要是在种植过程中形成的,通常通过露天燃烧直接在田间处理,但这种习惯是造成污染的一个可能来源。橄榄修剪残余物的热解转化已经以一种新的、非常吸引人的方式进行,使用微波作为热源,并在多模间歇式反应器中使用不同的微波吸收剂。通过这种方式,橄榄残余物在 15 至 36 分钟的短热解时间内转化为有趣的生化产品,峰值温度范围为 450 K 至 705 K,具体取决于不同的微波吸收剂。因此,实现了一个非常高效和选择性的系统,该系统能够实现从大量生物炭(高达 61.2%)或高生物油(56.2%)和气体(41.7%)的形成过程,同时生物炭的形成非常低(2.1%)。然而,当使用碳和铁作为微波吸收剂时,可以获得中等量的生物炭(26-30%)和生物油(40 重量%)。生物油收集为深色液体,具有低粘度和密度。使用碳或铁作为微波吸收剂可以获得水浓度低的生物油。使用 NaOH 作为微波吸收剂时,所有实验形成的生物油中都含有大量的乙酸。此外,使用碳作为微波吸收剂时,生物油中存在大量芳烃。

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