城市生活垃圾衍生球团气化燃料生产过程模拟

IEEA '18 Pub Date : 2018-03-28 DOI:10.1145/3208854.3208869
A. Hlaba, A. Rabiu, O. A. Osibote
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引用次数: 3

摘要

本文提出了垃圾衍生燃料(RDF)球团在固定床反应器中与空气气化制合成气的模型。该模型(利用Aspen Plus过程仿真软件)用于模拟RDF气化的预期结果,并给出有关RDF气化产生合成气的一些过程基础。固定床反应器为上升气流固定床反应器,可分为3段(脱挥发、部分氧化和蒸汽重整)。该模型基于Aspen Plus模拟器提供的模块组合,代表了气化的三个阶段。模拟中使用的热力学包由非随机双液(NRTL)模型组成。该模型基于吉布斯自由能最小化原理,并与文献中城市生活垃圾气化的实验数据进行了验证。RYield模块与RGibbs模块结合描述热解段,RGibbs模块单独描述气化段。讨论了RDF球团的近似和最终分析以及模型中使用的操作条件。利用Aspen Plus的敏感性分析模块,研究了空气当量比ER和温度值对合成气组成和碳转化率的影响。结果表明,温度越高,随着H2和CO组成的增加,气化效果越好,碳转化率也越高,直到900℃;随着CO2和h的增加,空气当量比增大,碳转化率提高,合成气质量降低。所得结果与文献中实验测量数据吻合较好。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Process Simulation of Municipal Solid Waste Derived Pellet Gasification for Fuel Production
This investigation proposes a model of syngas creation from Refuse Derived Fuel (RDF) Pellet gasification with air in fixed bed reactor. The model (utilizing Aspen Plus process simulation software) is utilized to model the anticipated results of RDF gasification and to give some processes fundamentals concerning syngas generation from RDF gasification. The fixed bed reactors is an updraft fixed bed reactor which can be divided into 3 sections n (devolatilization, partial oxidation, and steam reforming). The model is based on a combination of modules that the Aspen Plus simulator provides, representing the three stages of gasification. Thermodynamics package used in the simulation comprised the Non- Random Two-Liquid (NRTL) model. The model works on the principle of Gibbs free energy minimization and was validated with experimental data of MSW gasification found in literature. The RYield module was combined with the RGibbs module to describe pyrolysis section, while the RGibbs module was used for the gasification section individually. Proximate and ultimate analysis of RDF pellets and operating conditions used in the model are discussed. The sensitivity analysis module of Aspen Plus was used to research the effect of air equivalence ratio ER and temperature value on the syngas composition, and carbon conversion The results indicate that higher temperature improves gasification as the composition of H2 and CO increase, as well as carbon conversion, until a temperature of 900°C, and higher air equivalence ratio increases the carbon conversion while decreasing syngas quality as there is an increase in CO2 and H. Results obtained are in good agreement of experimentally measured data in literature.
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