具有碳捕获的综合气化联合循环热电联产系统的热经济评价:巴基斯坦的观点

Muhammad Adnan, M. Zaman, A. Ullah, Afşin Güngör
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引用次数: 3

摘要

在燃煤发电过程中,二氧化碳等温室气体的排放是一个主要问题。全球变暖是这些排放产物的主要有害影响,减轻排放对环境的影响变得至关重要。综合气化联合循环(IGCC)技术在热电联产灵活模式下运行,对缓解大气污染和提高电厂整体效率具有重要作用。对IGCC热电联产系统的热学和经济分析有助于制定IGCC电厂在灵活模式下运行的决策,以实现燃料和化学品的热电联产。在这项工作中,使用干煤进料气化炉(即Shell气化炉)在Aspen Plus®的热化学平衡下使用Gibbs自由能方法模拟了IGCC热电联产系统。已经开发出类似巴基斯坦煤的热模型和经济模型。对开发的同时生产甲烷、氨和电的IGCC热电联产系统进行了热学和经济分析。将甲烷和氨作为副产物,从年运行成本中减去收益抵免,计算出热电联产系统的电力成本(COE)等性能指标。结果表明,IGCC 100%发电的COE值为133.6美元/兆瓦时,IGCC热电联产的COE值为152.4美元/兆瓦时。最后,研究了热电联产系统中CO2排放速率的变化。IGCC热电联产系统的年二氧化碳排放量为352,314.4吨/年,而IGCC 100%动力设计的年二氧化碳排放量为433,449.6吨/年。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Thermo-economic evaluation of integrated gasification combined cycle co-generation system with carbon capture: A Pakistan’s perspective
Emissions of greenhouse gases such as carbon dioxide are of major apprehension during power generation from coal. Global warming is the main detrimental effect of these emission products, and it becomes essential to mitigate the effect of emissions to the environment. Integrated gasification combined cycle (IGCC) technology operating in flexible mode of co-generation can play a key role in mitigating the air pollution and improving the overall efficiency of the plant. Thermal and economic analysis of the IGCC co-generation system help make fine decision to run the IGCC plant in flexible mode for co-generation of fuel and chemicals along with power.In this work, the IGCC co-generation system has been simulated using dry-coal feed gasifier (i.e., Shell gasifier) under thermochemical equilibrium with the Gibbs free energy approach in Aspen Plus®. Thermal and economic models for the coal similar to Pakistani coals have been developed. Thermal and economic analysis on the IGCC co-generation system developed for simultaneous production of methane, ammonia and electricity has been performed. Performance indicator like cost of electricity (COE) of co-generation system has been calculated by considering methane and ammonia as a co-product and subtracting revenue credits from the annual operating cost. Results show that, COE for IGCC 100% power is 133.6 $/MWh in comparison to IGCC co-generation with value of 152.4 $/MWh. In the end, change in CO2 emission rate in co-generation system has also been investigated. Annual CO2 emission in IGCC co-generation system is 352,314.4 tons/year in comparison to 433,449.6 tons/year for IGCC 100% power design.
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