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Development of a multigeneration system with underground coal gasification integrated to bitumen extraction applications for oil sands

机译:开发了具有地下煤气化功能的多代系统,该系统已集成到油砂的沥青提取应用中

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In this study, a combined system for syngas, bitumen, hydrogen and electricity production is developed and analyzed. The proposed system consists of steam assisted gravity drainage (SAGD), underground coal gasification (UCG), solid oxide fuel cell (SOFC), integrated gasification combined cycle (IGCC) and an electrolyser. The present system offers significant practical advantages for the regions, containing both coal and oil reserves such as Alberta region. Coal, as an alternative to natural gas for generating steam, is gasified using high temperature and pressurized steam in underground cavity. The produced syngas is utilized in both IGCC and SOFC systems. By using the excess steam in IGCC, SAGD process is run, and bitumen is extracted as in-situ extraction. In addition, a part of generated power is used in an electrolyser to produce hydrogen. The present system is analyzed in terms of energy and exergy methodologies to assess the performance of the cycles. Additionally, the effects of various system parameters, such as ambient temperature and pressure, syngas temperature, coal and syngas lower heating values, air and steam injection rates on energy and exergy efficiencies of the subsystems and overall system are evaluated. The energy and exergy efficiencies of the overall system are calculated as 19.6% and 17.3%, respectively. (C) 2015 Elsevier Ltd. All rights reserved.
机译:在这项研究中,开发并分析了合成气,沥青,氢气和电力生产的组合系统。拟议的系统包括蒸汽辅助重力排水(SAGD),地下煤气化(UCG),固体氧化物燃料电池(SOFC),整体气化联合循环(IGCC)和电解槽。本系统为包含煤炭和石油储量的区域(例如艾伯塔省)提供了显着的实践优势。煤炭是天然气生产的天然气的替代品,它是通过地下腔体中的高温加压蒸汽进行气化的。生成的合成气可用于IGCC和SOFC系统。通过在IGCC中使用过量的蒸汽,运行SAGD工艺,并以原位萃取的方式萃取沥青。另外,一部分产生的功率被用在电解器中以产生氢。根据能量和火用方法对本系统进行分析,以评估循环的性能。另外,评估了各种系统参数的影响,例如环境温度和压力,合成气温度,煤和合成气较低的发热量,空气和蒸汽注入速率对子系统和整个系统的能量和火用效率的影响。整个系统的能效和火用效率分别计算为19.6%和17.3%。 (C)2015 Elsevier Ltd.保留所有权利。

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