The efficiency analysis of different combined cycle power plants based on the impact of selected parameters

T. Hoang, Daniel Kazimierz Pawluskiewicz
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引用次数: 13

Abstract

The reasons why combined cycles are more and more popular and being taken under consideration as one of the main types of power plants are quite varied. The main reason is efficiency. Nowadays, combined cycle power plants can achieve more than 60% efficiency what makes them one of the most efficient. It is important due to limitation of fossil fuels resources as well as environmental protection. Such constrictions are able to decrease CO2, SO2, NOX and dust production. That makes them suitable for a policy of decreasing global warming which affects people all around the world. The operation of combined cycle power plant is affected by many factors which are not only related with construction of a system but also ambient conditions. In present study, three different combined cycles were modeled in the Gate Cycle software: single-pressure with supplementary firing, dual-pressure and triple-pressure reheat cycle. Ambient temperature, pressure ratio in the gas part and temperature at the inlet to the gas turbine were investigated as the most significant factors which affect efficiency and power production in whole system.
基于选取参数影响的不同联合循环电厂效率分析
联合循环作为一种主要的发电方式越来越受到人们的重视和重视,其原因是多方面的。主要原因是效率。如今,联合循环发电厂的效率可以达到60%以上,这使它们成为效率最高的发电厂之一。由于化石燃料资源的有限性和环境保护的重要性。这样的收缩能够减少二氧化碳、二氧化硫、氮氧化物和粉尘的产生。这使得它们适合于减少影响全世界人民的全球变暖的政策。联合循环电厂的运行受到诸多因素的影响,这些因素不仅与系统结构有关,还与环境条件有关。本研究在Gate Cycle软件中模拟了三种不同的组合循环:单压补烧、双压和三压再热循环。研究了环境温度、燃气部分压力比和燃气轮机进口温度是影响整个系统效率和发电量的最重要因素。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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