基于天然气燃烧的联合发电厂能量与火用分析

Q3 Environmental Science Tikrit Journal of Engineering Sciences Pub Date : 2023-08-08 DOI:10.25130/tjes.30.3.3
K. Hamada, Marwah N Mohammed, Raad R. Jasim, Thamir K. Ibrahim
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引用次数: 1

摘要

本研究对一座750MW联合循环电厂(CCPP)进行了能量和火用分析。本研究利用MATLAB开发的计算机模型进行仿真。该模型基于天然气燃烧概念、能量平衡、焓平衡、熵变化和CCPPs传热。该模型以博德申Tuanku Ja 'afar电站的CCPP为例进行了验证。结果表明,CCPP的能源效率和火用效率分别为56%和51%。此外,应用火用分析发现,燃烧室的火用破坏率显著,为224.58 MW,占CCPP总火用破坏率的67.48%,其次是空压机7.53%,汽轮机7.07%。同时,提高涡轮进口温度降低了燃气轮机循环燃烧室的火能破坏率。温度高于1262°C时,CCPP的火用破坏减小。此外,在CCPP中,在电力系统的主要部件中,燃烧室的火用破坏率最高,达到225MW。可以看出,目前的天然气燃烧自适应模型是基于火用分析预测CCPPs整体性能的有力工具。
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Energy and Exergy Analyses of a Combined Power Plant Based on Natural Gas Combustion
The present study implemented energy and exergy analyses on a 750MW combined cycle power plant (CCPP). The research utilized a simulation process using a computer model developed in MATLAB. The model was based on the natural gas combustion concept, energy balances, enthalpy balances, entropy changes, and the CCPPs heat transfer. The model was validated with the case study of the CCPP at Tuanku Ja’afar Power Station, Port Dickson. The results showed that the CCPP’s energy and exergy efficiencies were 56% and 51%, respectively. Furthermore, applying exergy analysis revealed that the combustion chamber had a significant source of exergy destruction rate, i.e., 224.58 MW, which corresponded to 67.48% of the total exergy destruction in the CCPP, followed by the air compressor 7.53%, and the steam turbine 7.07%. Meanwhile, increasing the turbine inlet temperature (TIT) reduced the exergy destruction rate of the combustion chamber of the gas turbine cycle. The optimum performance obtained at TIT was higher than 1262 °C, where the exergy destruction decreased in the CCPP. Moreover, In CCPP, the combustion chamber was the highest exergy destruction rate, i.e., 225MW, among the main components of the power system. It can be grasped that the current adaptive model of natural gas combustion is a powerful tool for predicting the overall performance of the CCPPs based on exergy analysis.
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来源期刊
CiteScore
1.50
自引率
0.00%
发文量
56
审稿时长
8 weeks
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