Tetrapak waste treatment using microwave pyrolysis to produce alternative gas fuels

Ilham Ayu Putri Pratiwi, H. Saptoadi, J. Sentanuhady, C. Purnomo, T. A. Rohmat
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引用次数: 1

Abstract

Tetrapak waste is one of the most abundant wastes in the world. It consists of layers of paper, LDPE, and aluminium foil. It is difficult to recycle, however it can be converted into valuable gaseous fuel if processed by microwave heat using a dual reactor catalytic process, SiC as microwave absorber, and natural zeolite as catalyst. The sample was pyrolyzed at different Microwave Output Power (MOP) levels (300, 450, 600, and 800 W) and Catalytic Temperatures (CT) levels (350, 400, 450, and 500°C) for 30 minutes. The results showed that the MOP and CT levels positively affect the increase of the yield and improve the heating value of the gas product. For instance, at 800 W, the gas yield increased from 73 wt.% in the process without catalyst to 78 wt.% in the catalytic temperature of 500°C. The same effect occurred when various MOP levels were used. The gas yield increased when the MOP level raised. H 2 , CH 4 , CO, CO 2 , and other hydrocarbons with low molecular weights (C 2+ ) are the major components of gas products. The presence of catalyst, an increase in CT, and a rise in MOP all boosted the generation of syngas (H 2 + CO) up to 54.55 wt.%. The gas yields from this experiment have a LHV of 21.97–23.46 MJ/m 3 and total energy of 34.59–171.24 kJ. The high-quality gaseous products can be used as alternative fuels or feed gas for chemical synthesis.
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利用微波热解处理利乐废弃物,生产替代气体燃料
利乐袋废弃物是世界上最丰富的废弃物之一。它由多层纸、LDPE和铝箔组成。其回收难度较大,但以SiC为微波吸收剂,天然沸石为催化剂,采用双反应器催化工艺对其进行微波加热处理,可将其转化为有价值的气体燃料。样品在不同的微波输出功率(MOP)水平(300、450、600和800 W)和催化温度(CT)水平(350、400、450和500°C)下热解30分钟。结果表明,MOP和CT水平对产率的提高和气体热值的提高有积极的影响。例如,在800 W时,气体产率从无催化剂时的73 wt.%提高到500℃催化温度下的78 wt.%。当使用不同的MOP水平时,也会产生同样的效果。随着MOP水平的提高,产气率增加。h2, ch4, CO, CO 2和其他低分子量的碳氢化合物(c_2 +)是气体产物的主要成分。催化剂的存在、CT的增加和MOP的增加都将合成气(h2 + CO)的生成量提高到54.55 wt.%。实验所得气体的LHV为21.97 ~ 23.46 MJ/ m3,总能量为34.59 ~ 171.24 kJ。高质量的气态产物可作为化学合成的替代燃料或原料气。
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来源期刊
International Journal of Applied Science and Engineering
International Journal of Applied Science and Engineering Agricultural and Biological Sciences-Agricultural and Biological Sciences (all)
CiteScore
2.90
自引率
0.00%
发文量
22
期刊介绍: IJASE is a journal which publishes original articles on research and development in the fields of applied science and engineering. Topics of interest include, but are not limited to: - Applied mathematics - Biochemical engineering - Chemical engineering - Civil engineering - Computer engineering and software - Electrical/electronic engineering - Environmental engineering - Industrial engineering and ergonomics - Mechanical engineering.
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