快速变化天气条件下基于MPPT控制的anfiss - pso算法优化

Harmini, M. Ashari
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引用次数: 5

摘要

光伏(PV)系统的输出功率会受到温度、辐照度等天气条件的影响。然而,PV特性曲线有一个点称为最大功率点(MPP)。需要一种保证光伏处于最大功率点的算法,称为最大功率点算法。该算法必须能够在快速变化的天气条件下产生最大功率。本文给出了一种基于MPPT PV控制器的自适应神经模糊推理系统anfiss - pso的仿真证明,以达到MPPT PV。仿真系统包括三个部分:变温度和恒辐照度;变辐照度和恒温;同时可变温度和可变辐照度。将anfiss - pso控制器方法的性能与扰动和观察(P&O)和增量电导(Inc)进行了比较。它在快速变化的天气条件下(如辐照度和温度)提供快速响应,精确和准确的PV跟踪。仿真结果表明,在高辐照条件下,光伏系统具有零稳态误差和快速跟踪收敛速度。与传统的P&O和Inc方法相比,anfiss - pso具有更好的性能跟踪能力,可以在均匀和非均匀天气条件下进行适当的训练。anfi - pso可以产生比其他控制器更高的输出有功功率。在标准测试条件下,anfiss - pso的效率达到98.36%。该方法对学术知识的主要贡献是基于anfiss - pso算法获得最佳MPPT配置,并接受MPPT控制器设计。
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Optimalization of ANFIS-PSO Algorithm Based on MPPT Control for PV System Under Rapidly Changing Weather Condition
The output power of a Photovoltaic (PV) system is affected by changing of weather conditions such as temperature and irradiance. However, the PV characteristic curve has a certain point called the maximum power point (MPP). An algorithm is needed to ensure the PV at the Maximum Power Point, which is called the MPPT Algorithm. This algorithm must be able to produce maximum power in rapidly changing weather condition. In this paper, simulation justification of an Adaptive Neuro Fuzzy Inference System ANFIS-PSO based on MPPT PV controller has been provided to reach MPPT PV. Simulation system consist of three simulations: Variable Temperature and Constant Irradiance; Variable Irradiance and Constant Temperature; Variable Temperature and Variable Irradiance as Simultaneous. The performance of the ANFIS-PSO controller method is compared to Perturb and Observe (P&O) and Incremental Conductance (Inc). It provides fast response, precise and accurate PV tracking under rapidly changing weather conditions like irradiance and temperature. The simulation show that the PV system has been functional with zero steady state error and rapid tracking convergence velocity under highly irradiation. An ANFIS-PSO has better performance tracking ability compared with conventional method like P&O and Inc for proper training under uniform and ununiform weather conditions. An ANFIS-PSO can generate the output active power which is higher than another controller. The efficiency of an ANFIS-PSO reach 98.36% in Standard Test Condition (STC). The main contribution of this proposed method for academic knowledge is to obtain the best MPPT configuration based on ANFIS-PSO algorithm and acceptance of MPPT controller design.
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