径向基函数神经网络的灵活可扩展硬件结构

M. Mohammadi, N. Satpute, Rohit Ronge, J. Chandiramani, S. Nandy, Aamir Raihan, Tanmay Verma, R. Narayan, S. Bhattacharya
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引用次数: 3

摘要

径向基函数神经网络(RBFNN)被广泛应用于模式识别、控制和时间序列预测以及非线性识别等领域。考虑以高斯函数为基函数的RBFNN进行分类。训练是离线完成的,使用K-means聚类方法进行中心学习,使用伪逆方法进行权重调整。离线训练是通过计算任意一组固定权值的目标函数来完成的,我们可以看到我们的训练是否取得了进展。此外,目标函数的最小值可以计算到任何期望的精度,而在线训练则无法做到这一点,并且更加困难和不可靠。在本文中,我们提供了使用基于软核处理器的多处理器系统和hypercells[8],[13]网络在fpga上实现RBFNN的比较。接下来,我们提出了三种不同的划分结构(线性、树和混合)来实现大维度的RBFNN。我们的研究结果表明,使用混合结构在Hyper Cells网络上实现RBFNN,与fpga上的多处理器系统相比,平均减少26倍时钟周期,性能提高105倍。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Flexible Scalable Hardware Architecture for Radial Basis Function Neural Networks
Radial Basis Function Neural Networks (RBFNN) are used in variety of applications such as pattern recognition, control and time series prediction and nonlinear identification. RBFNN with Gaussian Function as the basis function is considered for classification purpose. Training is done offline using K-means clustering method for center learning and Pseudo inverse for weight adjustments. Offline training is done since the objective function with any fixed set of weights can be computed and we can see whether we make any progress in training. Moreover, minimum of the objective function can be computed to any desired precision, while with online training none of these can be done and it is more difficult and unreliable. In this paper we provide the comparison of RBFNN implementation on FPGAs using soft core processor based multi-processor system versus a network of Hyper Cells [8], [13]. Next we propose three different partitioning structures (Linear, Tree and Hybrid) for the implementation of RBFNN of large dimensions. Our results show that implementation of RBFNN on a network of Hyper Cells using Hybrid Structure, has on average 26x clock cycle reduction and 105X improvement in the performance over that of multi-processor system on FPGAs.
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