浆液泡塔反应器中费托合成的模拟

IF 3.9 3区 工程技术 Q3 ENERGY & FUELS
Yu Wang , Wei Fan , Ying Liu , Zhiyong Zeng , Xu Hao , Ming Chang , Chenghua Zhang , Yuanyuan Xu , Hongwei Xiang , Yongwang Li
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引用次数: 47

摘要

建立了费托合成(FTS)中运行于非均相流态的大型浆态泡塔反应器的多组分数学模型。在非均质流态下,气相采用双泡级流体力学模型。该反应器模型考虑了FTS和水煤气移位反应的详细动力学模型,能够较好地描述FTS在浆态泡塔反应器中的水动力特性和反应行为。由于气体体积收缩,表面气体速度沿反应器高度减小。随着FTS反应的加强,气体体积收缩的程度越来越严重。模型模拟得到的气体体积收缩系数在- 0.53 ~ - 0.65之间。为获得较高的反应器生产率和较高的中间馏分选择性,应选择合适的反应条件(如表面气速、固体浓度、反应温度、反应压力、入口H2/CO比等)。仿真结果为反应器设计和工艺放大提供了必要的数据。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Modeling of the Fischer–Tropsch synthesis in slurry bubble column reactors

A multicomponent mathematical model is developed for a large-scale slurry bubble column reactor operating in the heterogeneous flow regime for the Fischer–Tropsch synthesis (FTS). In the heterogeneous flow regime, the gas phase is modeled using a two-bubble class hydrodynamics model. The reactor model takes into account the detailed kinetics model of the FTS and water gas shift reaction, which can describe hydrodynamic characteristics and reaction behaviors of the FTS in slurry bubble column reactors. Superficial gas velocity decreases along the reactor height due to the gas volume contraction. With the FTS reaction being strengthened, the extent of the gas volume contraction becomes more severe. The values of gas volume contraction factor from model simulation are between −0.53 and −0.65. To obtain higher reactor productivity and higher selectivity of intermediate distillates, proper reaction conditions (such as superficial gas velocity, solid concentration, reaction temperature, reaction pressure, and inlet H2/CO ratio, etc.) should be selected. The simulation results provide necessary data for the reactor design and the process scale-up of the FTS.

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来源期刊
CiteScore
7.80
自引率
9.30%
发文量
408
审稿时长
49 days
期刊介绍: Chemical Engineering and Processing: Process Intensification is intended for practicing researchers in industry and academia, working in the field of Process Engineering and related to the subject of Process Intensification.Articles published in the Journal demonstrate how novel discoveries, developments and theories in the field of Process Engineering and in particular Process Intensification may be used for analysis and design of innovative equipment and processing methods with substantially improved sustainability, efficiency and environmental performance.
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