流化床
热解
低密度聚乙烯
废物管理
材料科学
热解油
产量(工程)
化学工程
环境科学
聚乙烯
冶金
复合材料
工程类
作者
Yujin Choi,Shuang Wang,Young Min Yoon,Jae Jun Jang,Daewook Kim,Ho-Jung Ryu,Doyeon Lee,Yooseob Won,Hyungseok Nam,Byungwook Hwang
出处
期刊:Energy
[Elsevier BV]
日期:2023-11-06
卷期号:286: 129564-129564
被引量:26
标识
DOI:10.1016/j.energy.2023.129564
摘要
This paper proposed a sustainable strategy for converting plastic waste into energy over pyrolysis to address the dual crises of environment and energy. A fluidized-bed reactor was designed for processing three different plastic waste (PP, LDPE and ABS). A product yield and properties from a fluidized bed system were comprehensively analyzed and compared with those from a fixed-bed system. The fluidized-bed reactor well converted ABS and PP wastes into pyrolysis fuel, exhibiting higher medium and low fraction (C5 ∼ C22 of 89.17 % for ABS) as compared to the amount from a fixed bed reactor (84.7 %) whereas LDPE and PP resulted in the similar product yields in the range of C5 ∼ C22 from both reactors. In case of LDPE, the given pyrolysis temperature (520 °C) was not feasible to properly process them into fuels so that dominant heavy oil (∼67.4 %) were produced regardless of the reactor type. GCMS analysis indicated that ABS pyrolysis oil is mainly composed of aromatics, aromatic-N and olefins whereas PP pyrolysis oil mainly includes olefins, paraffins and oxygenated compounds. From the current study, a potential use of a fluidized-bed reactor for pyrolysis was evaluated to overcome the major limitations of conventional pyrolysis process.
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