A Map Reduce-Based Nearest Neighbor Approach for Big-Data-Driven Traffic Flow Prediction

A Map Reduce-Based Nearest Neighbor Approach for Big-Data-Driven Traffic Flow Prediction
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DOI:
10.1109/access.2016.2570021
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发表时间:
2016
期刊:
影响因子:
3.9
通讯作者:
Dawen Xia;Huaqing Li;Binfeng Wang;Yantao Li;Zili Zhang
Dawen Xia;Huaqing Li;Binfeng Wang;Yantao Li;Zili Zhang
中科院分区:
计算机科学3区
文献类型:
--
作者:
Dawen Xia;Huaqing Li;Binfeng Wang;Yantao Li;Zili Zhang

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在大数据驱动的交通流预测系统中,预测性能的稳健性取决于准确性和及时性。本文提出了一种新的基于MapReduce的最近邻(NN)方法,用于在Hadoop平台上使用相关分析(TFPC)进行交通流预测。特别是,我们开发了一个实时预测系统,包括两个关键模块,即,离线分布式训练(ODT)和在线并行预测(PART)。此外,我们建立了一个并行的$k$ -最近邻优化分类器,它将业务流之间的相关性信息的分类过程。最后,提出了一种新的预测计算方法,将实时观测到的交通流数据与ODT对大规模历史数据的分类结果相结合,生成真实的交通流预测。使用留一交叉验证方法对真实世界交通流大数据的实证研究表明,TFPC显著优于四种最先进的预测方法,即,自回归综合移动平均,朴素贝叶斯,多层感知器神经网络和NN回归,在准确性方面,在最好的情况下可以提高90.07%,平均绝对误差为5.53%。此外,它还显示了出色的加速、扩展和规模扩展。
In big-data-driven traffic flow prediction systems, the robustness of prediction performance depends on accuracy and timeliness. This paper presents a new MapReduce-based nearest neighbor (NN) approach for traffic flow prediction using correlation analysis (TFPC) on a Hadoop platform. In particular, we develop a real-time prediction system including two key modules, i.e., offline distributed training (ODT) and online parallel prediction (OPP). Moreover, we build a parallel $k$ -nearest neighbor optimization classifier, which incorporates correlation information among traffic flows into the classification process. Finally, we propose a novel prediction calculation method, combining the current data observed in OPP and the classification results obtained from large-scale historical data in ODT, to generate traffic flow prediction in real time. The empirical study on real-world traffic flow big data using the leave-one-out cross validation method shows that TFPC significantly outperforms four state-of-the-art prediction approaches, i.e., autoregressive integrated moving average, Naïve Bayes, multilayer perceptron neural networks, and NN regression, in terms of accuracy, which can be improved 90.07% in the best case, with an average mean absolute percent error of 5.53%. In addition, it displays excellent speedup, scaleup, and sizeup.