利用开源软件DWSIM对设计工况下的联合循环和燃气轮机电厂进行仿真

IF 1.2 Q3 MULTIDISCIPLINARY SCIENCES ARO-THE SCIENTIFIC JOURNAL OF KOYA UNIVERSITY Pub Date : 2023-02-20 DOI:10.14500/aro.11098
Twana N. Hassan, Saif T. Manji
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引用次数: 0

摘要

如今,清洁和高功率发电是世界范围内必不可少的问题。为了改进和优化,发电厂需要精确的模型,这些模型可以引入过程模拟器。工业模拟有各种各样的商业软件,不是每个人都可以使用。开源的DWSIM过程模拟器是第一个化学工程代码,它为更好地研究工业工厂提供了许多工具。本文采用DWSIM软件对某联合循环燃气轮机(CCGT)电厂在设计工况下的三种工况进行了仿真。对多级压缩机和压缩机图的通用模型进行了预测。在第一种情况下,将考虑在ASPEN HYSYS和GateCycle中开发的两个模型。DWSIM取得的结果在热效率和发电方面是可以接受的。DWSIM的热效率比ASPEN HYSYS低3.5%,发电量完全相同。在第二种情况下,使用当地CCGT发电厂的实际现场数据进行了严格的模拟。DWSIM的结果与实际数据非常接近。GT和CC的发电量非常接近;品种接近0.45%。在第三种情况下,精确地完成了带热电联产系统的CCGT的仿真,结果与DWSIM的结果非常吻合。DWSIM预测显示,高压涡轮、低压涡轮和电厂净功率分别降低0.26%、4.79%和0.72%。
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Simulating Combined Cycle and Gas Turbine Power Plant under Design Condition using Open-Source Software DWSIM
Nowadays, clean and high-power generation is essential matters worldwide. To be improved and optimized, power plants require accurate models that can be introduced to process simulators. There is various commercial software for industrial simulation which is not accessible to everyone. The open-source DWSIM process simulator is the first chemical engineering code that offers many tools for the better study of industrial plants. In this paper, we employ DWSIM software to simulate a combined cycle gas turbine (CCGT) power plant under design conditions for three cases. The generic models are predicted for multistage compressors and compressor maps. In the first case, two models developed in ASPEN HYSYS and GateCycle will be considered. The achieved results by DWSIM are acceptably comparable for thermal efficiency and power generation. The DWSIM result is 3.5% lower than the ASPEN HYSYS for thermal efficiency, and the power generation is completely the same. In the second case, rigorous simulation was carried out using actual field data from the local CCGT power plant. The DWSIM outcomes are very close to the practical data. The power generation of GT and CC is very close; the variety is nearly 0.45%. In the third case, the simulation of CCGT with a cogeneration system is precisely accomplished, and the outcomes of DWSIM are shown in excellent agreement. The DWSIM prediction shows lower values by 0.26%, 4.79%, and 0.72% for the HP turbine, LP turbine, and plant net power, respectively.
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ARO-THE SCIENTIFIC JOURNAL OF KOYA UNIVERSITY
ARO-THE SCIENTIFIC JOURNAL OF KOYA UNIVERSITY MULTIDISCIPLINARY SCIENCES-
自引率
33.30%
发文量
33
审稿时长
16 weeks
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