Generalized neural network methodology for short term solar power forecasting

V. Singh, V. Vijay, M. S. Bhatt, D. Chaturvedi
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引用次数: 30

Abstract

The main objective of this paper is to perform data analysis of ground based measurement and review the state of the art of IIT Jodhpur Rooftop solar photovoltaic installed 101 kW system. Solar power forecasting is playing a key role in solar PV park installation, operation and accurate solar power dispatchability as well as scheduling. Solar Power varies with time and geographical locations and meteorological conditions such as ambient temperature, wind velocity, solar radiation and module temperature. The location of Solar PV system is the main reason of solar power variability. Solar variability totally depends on system losses (deterministic losses) and weather parameter (stochastic losses). In the case of solar power, deterministic losses can be found out accurately but stochastic losses are very uncertain and unpredicted in nature. The proposed soft computing technique will be suitable for solar power forecasting modeling. In this paper Fuzzy theory, Adaptive Neuro-fuzzy interface system, artificial neural network and generalized neural network are used as powerful tool of solar power Forecasting. This soft computing cum nature inspired techniques are able to accurately and fast forecasting compared to conventional methods of forecasting. This is done analyzing the operational data of 101 kW PV systems (43.30 kW located in Block 1 and 58.08 kW in Block 2), during the year 2011.
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太阳能发电短期预测的广义神经网络方法
本文的主要目的是对地面测量数据进行分析,并回顾印度理工学院焦特布尔屋顶太阳能光伏安装101千瓦系统的现状。太阳能发电预测对太阳能光伏电站的安装、运行和准确的太阳能发电调度起着至关重要的作用。太阳能发电量随时间、地理位置和气象条件(如环境温度、风速、太阳辐射和组件温度)而变化。太阳能光伏系统的位置是造成太阳能发电变异性的主要原因。太阳变率完全取决于系统损失(确定性损失)和天气参数(随机损失)。以太阳能为例,确定性损失可以准确地发现,但随机损失在本质上是非常不确定和不可预测的。所提出的软计算技术将适用于太阳能发电预测建模。本文将模糊理论、自适应神经模糊接口系统、人工神经网络和广义神经网络作为太阳能发电预测的有力工具。与传统的预测方法相比,这种软计算和自然启发的技术能够准确和快速地预测。本文分析了2011年101千瓦光伏系统的运行数据(其中43.30千瓦位于Block 1, 58.08千瓦位于Block 2)。
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