使用熔融碳酸盐燃料电池系统与天然气联合循环在部分负荷下运行

Robert Flores, J. Brouwer
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引用次数: 1

摘要

传统的碳捕获技术已被证明可以有效地捕获排放,但代价是减少发电厂的产量。熔融碳酸盐燃料电池技术(MCFC)有潜力将工厂的碳排放浓缩成适合储存的气体流,同时提高工厂的总发电量。在考虑这类技术时,必须考虑电厂的原始目的和功能。特别是以燃气轮机(GT)为基础的天然气联合循环(NGCC),由于能够在运行后承受动态负荷,可能需要保持运行灵活性。这项工作探讨了在工厂部分负荷运行时,利用MCFC技术对现有GT进行碳捕获的改造。建立了工厂主要部件的物理模型,并用于选择最优运行设定点,使运行成本最小化。特别注意确保所有发动机部件的可行运行。结果表明,当燃气轮机部分负荷运行时,MCFC运行参数能最大限度地减少燃料电池运行条件的变化。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Using Molten Carbonate Fuel Cell Systems for CO2 With a Natural Gas Combined Cycle Operating at Part Load
Traditional carbon capture technology has been shown to effectively capture emissions, but at a cost of reducing power plant output. Molten carbonate fuel cell technology (MCFC) has the potential to be able to concentrate plant carbon emissions into a gas stream that is suitable for storage while boosting total plant power output. When considering this type of technology, the original purpose and function of the power plant must be considered. In particular, gas turbines (GT) based natural gas combined cycle (NGCC), which are capable of dynamic load following operation, are likely to need to maintain operational flexibility. This work explores the retrofit of an existing GT with MCFC technology for carbon capture when the plant is operated at part load. Physical models for major plant components are built and used to select optimal operating set points such that operating cost is minimized. Special attention is given to ensuring feasible operation across all engine components. The results show MCFC operational parameters that minimize change in fuel cell operating conditions when the gas turbine is operated at part load.
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