Extended Fast Relevance Vector Regression based Pollutant Concentrations Prediction for Biomass Cogeneration Systems

Zhifei Sun, Xiuli Wang, Defeng He
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Abstract

Accurate and reliable prediction of pollutant emission concentrations from biomass cogeneration systems is critical to improving energy efficiency and reducing environmental pollution. The Relevance Vector Regression (RVR) algorithm, with its strong ability to represent stochastic uncertainty, has become an effective method for pollutant concentration prediction in biomass cogeneration systems. However, the classical RVR algorithm is mainly used for univariate prediction and has good prediction results only for small sample data. In order to address the problems of biomass cogeneration systems with far more than one pollutant and large data sets, a prediction model based on an improved Fast Relevance Vector Regression (FRVR) algorithm is proposed in this paper. Specifically, the model is divided into two parts with different methods: a K-means method to partition the dataset and a prediction based on an improved FRVR algorithm. First, the K-means method is used to divide the large data set into smaller data sets so that the prediction model can better extract all the useful information from the original data. Second, the FRVR algorithm is extended to multivariate output to achieve simultaneous prediction of multiple pollutant concentration. Finally, the experimental results verified that the proposed algorithm has great performance in the pollutant concentrations prediction of biomass cogeneration systems.
基于扩展快速相关向量回归的生物质热电联产系统污染物浓度预测
准确可靠地预测生物质热电联产系统的污染物排放浓度对提高能源效率和减少环境污染至关重要。相关向量回归(RVR)算法具有较强的随机不确定性表征能力,已成为生物质热电联产系统中污染物浓度预测的有效方法。然而,经典的RVR算法主要用于单变量预测,仅对小样本数据有较好的预测效果。针对生物质热电联产系统污染物数量多、数据量大的问题,提出了一种基于改进快速相关向量回归(FRVR)算法的预测模型。具体来说,该模型分为两部分,采用不同的方法:K-means方法对数据集进行划分,基于改进的FRVR算法进行预测。首先,使用K-means方法将大数据集划分为较小的数据集,使预测模型能够更好地从原始数据中提取所有有用的信息。其次,将FRVR算法扩展到多元输出,实现多种污染物浓度的同时预测。最后,实验结果验证了该算法在生物质热电联产系统污染物浓度预测中具有良好的性能。
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