蒸汽和燃气联合循环装置,可清除烟气中的二氧化碳

Dr. Eng. Prof. E.N. Prutkovsky, Dr. Eng. E.K. Chavchanidze
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引用次数: 5

摘要

蒸汽和燃气联合循环装置(Combined Cycle Power Plants - CCPP)项目在减少灰、SO和NO排放造成的空气污染方面显示出很高的效率。经操作证明是正确的。用于减少二氧化碳排放,这些装置可以获得更好的结果。(这一应用在未来将非常重要)“冷冻”和烷醇胺二氧化碳处理方法需要增加1.3 - 1.4倍的比例燃料消耗。二氧化碳在CCPP循环中“冻结”,中间气体冷却至= 170 K,部分平衡了gtu容量的减少,而牺牲了汽轮机容量的增加。在俄罗斯,这类二氧化碳的大量实际经验是在实验工厂从膨胀涡轮机后面的烟道气中以晶体形式提取。在制冷工业中,对再生机组在膨胀涡轮前将气体在压力(p = 0.4 MPa)下冷却至= 173 K进行了阐述和试验。本文给出了远程热电联产的热图、示范燃机和蒸汽气电厂CO2处置的特点、设备方案和工程总体参数。这些CCPP的效率将比没有二氧化碳处理的现代粉状燃料块高出20%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Combined cycle steam and gas units with the clean-up of the flue gases from carbon dioxide

Projects of the Combined Cycle Steam and Gas Units (Combined Cycle Power Plants - CCPP) reveal a high efficiency when being applicated to reduce the air pollution caused by ash, SO and NO emissions. It was proven out by operation. Used to reduce CO2 emissions, these units allow the obtaining of even better results. (This application will be of great importance in future.) “Freezing out” and alkanolamyn CO2 disposal methods require a 1.3 – 1.4 times increased proportional fuel consumption. CO2 “freezing out” in the CCPP cycle with intermediate gas cooling to to = 170 K partially equilibrates the capacity decrease of GTUs at the expense of the increase of the steam turbines' capacity.

In Russia, a considerable practical experience in this type of CO2 is being extracted in crystals at experimental plants from flue gas behind the expansion turbine. Regenerating units cooling gas under pressure (p = 0.4 MPa) to to = 173 K before the expansion turbine were elaborated and tested in the refrigeration industry.

Given here are thermal diagrams, characteristics of demonstration gas turbine and steam-gas plants with CO2 disposal, equipment scheme and general project parameters for long-range CCPP. The efficiency of these CCPP will be 20% higher than that of modern pulverized-fuel blocks without CO2 disposal.

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