A neuro-fuzzy model of the solar diffuse radiation with relevance vector machine

E. Lazarevska, Jovan Trpovski
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引用次数: 8

Abstract

Solar radiation data are essential for most solar energy research and applications. However, the only measurements of solar radiation for which long-term records are available from a large number of locations are the measurements of the global solar radiation. Thus the diffuse solar radiation and the direct solar radiation must be estimated by various means from the global solar radiation. Although a number of diffuse radiation models are available nowadays, they have many drawbacks such as their dependence on geographic location, the type of data, weather conditions etc. The paper presents a different approach to modeling the diffuse solar radiation from the approaches presented in literature which is based both on fuzzy logic and artificial neural network techniques. The adopted neuro-fuzzy model employs a fuzzy inference system with the same structure as that of a Takagi-Sugeno fuzzy model but with a neural network learning mechanism called relevance vector machine. The number of fuzzy rules and parameter values of membership functions of the model are automatically generated through the relevance vector machine. The performance of the model is tested against independent measurement data and is compared to the performance of other models reported in literature. The obtained results show great effectiveness of the adopted neuro-fuzzy model, its main features being the small model dimension (fewer fuzzy rules) and a very good generalization.
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基于相关向量机的太阳漫射辐射神经模糊模型
太阳辐射数据是大多数太阳能研究和应用所必需的。然而,从大量地点获得长期记录的唯一太阳辐射测量是对全球太阳辐射的测量。因此,必须用各种方法从太阳总辐射中估计太阳漫射辐射和太阳直接辐射。虽然目前有许多散射辐射模型可用,但它们有许多缺点,如依赖于地理位置,数据类型,天气条件等。本文提出了一种基于模糊逻辑和人工神经网络技术的太阳漫射辐射建模方法。所采用的神经模糊模型采用了与Takagi-Sugeno模糊模型结构相同的模糊推理系统,但采用了一种称为相关向量机的神经网络学习机制。通过相关向量机自动生成模型的模糊规则个数和隶属函数参数值。对模型的性能进行了独立测量数据的测试,并与文献中报道的其他模型的性能进行了比较。结果表明,所采用的神经模糊模型具有模型维数小(模糊规则少)和泛化性好的特点。
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