Solution of Combined Economic Emission Dispatch Problem with Valve-Point Effect Using Hybrid NSGA II-MOPSO

Arunachalam Sundaram
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引用次数: 8

Abstract

This chapter formulates a multi-objective optimization problem to simultaneously mini- mize the objectives of fuel cost and emissions from the power plants to meet the power demand subject to linear and nonlinear system constraints. These conflicting objectives are formulated as a combined economic emission dispatch (CEED) problem. Various meta-heuristic optimization algorithms have been developed and successfully implemented to solve this complex, highly nonlinear, non-convex problem. To overcome the shortcomings of the evolutionary multi-objective algorithms like slow convergence to Pareto-optimal front, premature convergence, local trapping, it is very natural to think of integrating various algorithms to overcome the shortcomings. This chapter proposes a hybrid evolu- tionary multi-objective optimization framework using Non-Dominated Sorting Genetic Algorithm II and Multi-Objective Particle Swarm Optimization to solve the CEED prob- lem. The hybrid method along with the proposed constraint handling mechanism is able to balance the exploration and exploitation tasks. This hybrid method is tested on IEEE 30 bus system with quadratic cost function considering transmission loss and valve point effect. The Pareto front obtained using hybrid approach demonstrates that the approach converges to the true Pareto front, finds the diverse set of solutions along the Pareto front and confirms its potential to solve the CEED problem.
采用混合NSGA - mopso求解具有阀点效应的联合经济排放调度问题
本章提出了一个多目标优化问题,以同时最小化电厂的燃料成本和排放目标,以满足线性和非线性系统约束下的电力需求。这些相互冲突的目标被表述为一个联合经济排放调度(CEED)问题。各种元启发式优化算法已经开发并成功实现,以解决这个复杂的,高度非线性的,非凸问题。为了克服进化多目标算法收敛到帕累托最优前沿慢、过早收敛、局部捕获等缺点,很自然地需要综合各种算法来克服这些缺点。本文提出了一种采用非支配排序遗传算法和多目标粒子群算法的混合进化多目标优化框架来解决CEED问题。混合方法和约束处理机制能够平衡勘探和开发任务。在考虑传输损耗和阀点效应的二次代价函数的ieee30总线系统上对该混合方法进行了测试。使用混合方法获得的Pareto锋面表明,该方法收敛于真正的Pareto锋面,并沿Pareto锋面找到了不同的解集,证实了其解决CEED问题的潜力。
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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