Economic/environmental dispatch of an interconnected power system considering Multiple Fuel Sources

P. Balachandar, S. Ganesan, N. Jayakumar, S. Subramanian
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引用次数: 2

Abstract

Due to the ever stringent environmental regulations, the power producers have been forced to produce electric power at the least price and minimum level of emissions. The generation electrical power from fossil fuel releases several impurities into atmosphere and this become excrescent if the generating unit is fueled with Multiple Fuel Sources (MFS). Inclusion of this issue in the operational task is a welcome perspective. Nevertheless numerous published reports deal only the cost effective operation, this work proposes a more accurate and practical operational model considering valve-point effects, CO2 emission and MFS. This power system operational problem is constructed as a multi-objective non-linear optimization problem which considers conflicting objectives. To address this problem, the modern nature inspired algorithm called Ant Lion Optimizer (ALO) has been chosen as the primal optimizer. The fuzzy decision making mechanism is adopted to determine the best compromised solution in multi-objective framework. Further, the ALO is applied to solve the operational problem taking into consideration the MFS and tie line capacity between different areas of the power system. To validate the effectiveness of ALO, it is implemented on the standard test system comprises of 10 generating units and various kinds of power system operations are performed. Moreover, the comparison and performance analysis confirm that the current proposal is found enhanced in terms of solution quality.
考虑多种燃料来源的互联电力系统的经济/环境调度
由于日益严格的环境法规,电力生产商被迫以最低的价格和最低的排放水平发电。化石燃料发电会向大气中释放一些杂质,如果发电机组使用多种燃料源(MFS),这些杂质就会成为多余的。将这个问题纳入操作任务是一个受欢迎的观点。尽管许多已发表的报告只涉及成本效益的操作,但本研究提出了一个考虑阀点效应、二氧化碳排放和MFS的更准确和实用的操作模型。将电力系统运行问题构建为考虑目标冲突的多目标非线性优化问题。为了解决这个问题,我们选择了一种受自然启发的现代算法——蚂蚁狮子优化器(ALO)作为原始优化器。采用模糊决策机制确定多目标框架下的最佳折衷方案。在此基础上,考虑了电力系统各区域间的最大负荷和并线容量,应用ALO解决了运行问题。为了验证该方法的有效性,在由10台发电机组组成的标准测试系统上进行了实施,并进行了各种电力系统运行。此外,对比和性能分析证实,本方案在解决方案质量方面有所提高。
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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