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垃圾转化为能源:关于利用孟加拉国可用的农业残留物、城市固体废弃物和电子垃圾进行热解转化的实验研究。

Waste to energy: An experimental study of utilizing the agricultural residue, MSW, and e-waste available in Bangladesh for pyrolysis conversion.

作者信息

Islam Md Kaviul, Khatun Mst Sharifa, Arefin Md Arman, Islam Mohammad Rofiqul, Hassan Mehadi

机构信息

School of Science and Engineering, Canadian University of Bangladesh, Dhaka 1212, Bangladesh.

Department of Mechanical Engineering, Rajshahi University of Engineering & Technology, Rajshahi 6204, Bangladesh.

出版信息

Heliyon. 2021 Dec 5;7(12):e08530. doi: 10.1016/j.heliyon.2021.e08530. eCollection 2021 Dec.

Abstract

The paper aims to study different aspects of liquid fuel production through pyrolysis from agricultural residues, MSW, and e-waste available in Bangladesh. The abundant production of various crops generates massive amounts of residue such as rice straw, wheat straw, rice husk, jute stick, and sugarcane bagasse in Bangladesh have great potential for liquid fuel production for pyrolysis conversion. Bangladesh produces almost 25,000 tons of solid waste per day from urban areas, and Dhaka city alone contributes to one-quarter of all urban waste in the country. The biomass and waste-derived pyrolysis fuel can be successfully used in turbines, boilers, engines and upgraded to high-quality hydrocarbon transportation fuels through distillation. The concise data obtained from the study is anticipated to provide valuable information regarding the effective utilization of municipal solid waste and agricultural residues by using pyrolysis process so that further detailed work on these resources can pave a pathway towards scientific research and significant energy contribution in Bangladesh. The feasibility study has been conducted through physical properties, proximate analysis, elemental analysis, and thermogravimetric analysis of the selected agricultural residues, municipal solid wastes, and plastic e-wastes for pyrolysis conversion in Bangladesh. It has been found that polythene has a better thermochemical potential than rice straw (13.71 MJ/kg) owing to its high calorific value (46.41 MJ/kg). The foremost volatile matter obtained from plastic waste is 98.1 wt.%, and the minimum from rice husk is 57.19 wt.%. The maximum carbon amount is possessed by plastic waste (84.03 wt.%). The ultimate analysis showed that the MSW sample contains more sulfur content than agricultural residue and e-waste, whereas the case is the opposite in terms of oxygen. Rice husk and tire waste have the highest ash content, i.e., 19.70 and 4.38 (wt.%), respectively, indicating a significant amount of unwanted material. TGA examination of feedstock revealed that the majority of mass loss occurred between 250-450 °C for agricultural residue attributed to the release of volatile materials during the formation of char and the evolution of pyrolysis gases. For MSW samples, the range varies between 350-500 °C, which is the appropriate temperature for optimizing liquid oil production in plastic pyrolysis.

摘要

本文旨在研究通过热解利用孟加拉国的农业残余物、城市固体废弃物和电子垃圾来生产液体燃料的不同方面。孟加拉国各种作物产量丰富,产生了大量残余物,如稻草、麦秸、稻壳、黄麻杆和甘蔗渣,它们在热解转化生产液体燃料方面具有巨大潜力。孟加拉国城市地区每天产生近25000吨固体废物,仅达卡市就占全国城市垃圾总量的四分之一。生物质和废弃物衍生的热解燃料可成功用于涡轮机、锅炉、发动机,并通过蒸馏升级为高质量的碳氢化合物运输燃料。预计该研究获得的简要数据将提供有关利用热解工艺有效利用城市固体废弃物和农业残余物的宝贵信息,以便对这些资源开展进一步详细工作,为孟加拉国的科学研究和重大能源贡献铺平道路。通过对孟加拉国用于热解转化的选定农业残余物、城市固体废弃物和塑料电子垃圾进行物理性质、近似分析、元素分析和热重分析,开展了可行性研究。结果发现,由于聚乙烯的高热值(46.41兆焦/千克),其热化学潜力比稻草(13.71兆焦/千克)更好。塑料垃圾产生的挥发性物质含量最高,为98.1重量%,稻壳产生量最低,为57.19重量%。塑料垃圾的碳含量最高(84.03重量%)。最终分析表明,城市固体废弃物样品中的硫含量高于农业残余物和电子垃圾,而氧含量情况则相反。稻壳和轮胎废料的灰分含量最高,分别为19.70%和4.38%(重量%),表明存在大量无用物质。原料的热重分析表明,农业残余物在250 - 450°C之间发生了大部分质量损失,这归因于在焦炭形成过程中挥发性物质的释放以及热解气体的逸出。对于城市固体废弃物样品,该温度范围在350 - 500°C之间,这是塑料热解中优化液体油生产的适宜温度。

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