The on-line curvilinear component analysis (onCCA) for real-time data reduction

G. Cirrincione, J. Hérault, V. Randazzo
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引用次数: 17

Abstract

Real time pattern recognition applications often deal with high dimensional data, which require a data reduction step which is only performed offline. However, this loses the possibility of adaption to a changing environment. This is also true for other applications different from pattern recognition, like data visualization for input inspection. Only linear projections, like the principal component analysis, can work in real time by using iterative algorithms while all known nonlinear techniques cannot be implemented in such a way and actually always work on the whole database at each epoch. Among these nonlinear tools, the Curvilinear Component Analysis (CCA), which is a non-convex technique based on the preservation of the local distances into the lower dimensional space, plays an important role. This paper presents the online version of CCA. It inherits the same features of CCA, is adaptive in real time and tracks non-stationary high dimensional distributions. It is composed of neurons with two weights: one, pointing to the input space, quantizes the data distribution, and the other, pointing to the output space, represents the projection of the first weight. This on-line CCA has been conceived not only for the previously cited applications, but also as a basic tool for more complex supervised neural networks for modelling very complex high dimensional data. This algorithm is tested on 2-D and 3-D synthetic data and on an experimental database concerning the bearing faults of an electrical motor, with the goal of novelty (fault) detection.
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在线曲线分量分析(onCCA)用于实时数据约简
实时模式识别应用通常处理高维数据,这需要一个数据约简步骤,而这个步骤只能离线执行。然而,这失去了适应不断变化的环境的可能性。对于与模式识别不同的其他应用程序也是如此,例如用于输入检查的数据可视化。只有线性投影,如主成分分析,可以通过迭代算法实时工作,而所有已知的非线性技术都不能以这种方式实现,并且实际上总是在每个历元的整个数据库上工作。在这些非线性工具中,曲线分量分析(CCA)是一种基于局部距离保持到低维空间的非凸技术,在非线性分析中起着重要作用。本文介绍了CCA的在线版本。它继承了CCA的特点,具有实时自适应和跟踪非平稳高维分布的能力。它由两个权重的神经元组成:一个指向输入空间,量化数据分布,另一个指向输出空间,表示第一个权重的投影。这种在线CCA不仅适用于前面提到的应用,而且还可以作为更复杂的监督神经网络的基本工具,用于模拟非常复杂的高维数据。该算法在二维和三维合成数据以及电机轴承故障的实验数据库上进行了测试,目的是进行新颖性(故障)检测。
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