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利用富含 Ca、Fe、Si 和 Al 的工业废料制备的催化剂对榴莲壳热解蒸汽进行脱氧。

Deoxygenation of pyrolysis vapour derived from durian shell using catalysts prepared from industrial wastes rich in Ca, Fe, Si and Al.

机构信息

School of Chemical Engineering, Engineering Campus, Universiti Sains Malaysia, 14300 Nibong Tebal, Penang, Malaysia.

Department of Chemical Engineering, College of Engineering, Qatar University, P.O. Box 2713, Doha, Qatar.

出版信息

Sci Total Environ. 2020 Feb 10;703:134902. doi: 10.1016/j.scitotenv.2019.134902. Epub 2019 Nov 1.

DOI:10.1016/j.scitotenv.2019.134902
PMID:31753498
Abstract

Catalysts prepared from industrial wastes rich in Fe, Ca, Si, and Al were used in catalytic upgrading of pyrolysis vapour derived from durian shell and their effect on product yield and properties were compared. With same silica-to-alumina ratio, catalyst prepared from oil palm ash (AS-OPA) with lower Fe and Ca contents gave higher liquid yield (8.32 wt%) with alcohols (28.90%), hydrocarbons (46.00%), and nitrogen-containing compounds (21.46%) while catalyst prepared from electric arc furnace slag (AS-EAF) with higher Fe and Ca contents produced lower liquid yield (50.21 wt%) with high amount of esters (25.80%) and hydrocarbons (72.82%). The presence of AS-OPA and AS-EAF catalysts enhanced deoxygenation degree of bio-oil to 81.13% and 85.49%, respectively. The catalytic performance of AS-EAF at different temperatures (400-600 °C) and AS-EAF/durian shell ratios (1:30, 2:30, 3:30) was investigated. Increasing catalytic temperature enhanced production of bio-oil, reduced oxygenates and enhanced formation of esters. The liquid yield and yield of esters decreased with increasing catalyst loading. Hydrocarbons (mainly neopentane) were the major chemical compounds found in bio-oil produced over AS-EAF. Besides that, AS-EAF showed good deoxygenation performance with highest selectivity of hydrocarbons at 500 °C and AS-EAF/durian shell ratio of 2:30. Catalytic fast pyrolysis of durian shell using waste-derived catalysts is an effective waste management strategy as the bio-oil produced can be a potential alternative source of energy or chemical feedstocks.

摘要

利用富含铁、钙、硅和铝的工业废料制备的催化剂用于催化榴莲壳热解蒸气的升级,并比较了它们对产物收率和性质的影响。在相同的硅铝比下,用低铁和低钙含量的油棕灰(AS-OPA)制备的催化剂产生了更高的液体收率(8.32wt%),其中醇(28.90%)、烃(46.00%)和含氮化合物(21.46%)含量更高,而用高铁和高钙含量的电弧炉渣(AS-EAF)制备的催化剂产生了较低的液体收率(50.21wt%),其中酯(25.80%)和烃(72.82%)含量较高。AS-OPA 和 AS-EAF 催化剂的存在将生物油的脱氧程度分别提高到 81.13%和 85.49%。考察了 AS-EAF 在不同温度(400-600°C)和 AS-EAF/榴莲壳比例(1:30、2:30、3:30)下的催化性能。提高催化温度可以提高生物油的产量,减少含氧化合物,增加酯的形成。随着催化剂用量的增加,液体收率和酯收率降低。烃(主要是新戊烷)是在 AS-EAF 上生产的生物油中发现的主要化学物质。此外,AS-EAF 在 500°C 和 AS-EAF/榴莲壳比例为 2:30 时表现出良好的脱氧性能,烃的选择性最高。利用废催化剂进行榴莲壳快速热解是一种有效的废物管理策略,因为所产生的生物油可以作为潜在的能源或化学原料替代来源。

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