Compressing Deep Neural Networks for Efficient Speech Enhancement

Ke Tan, Deliang Wang
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引用次数: 13

Abstract

The use of deep neural networks (DNNs) has dramatically improved the performance of speech enhancement in the past decade. However, a large DNN is typically required to achieve strong enhancement performance, and this kind of model is both computationally intensive and memory consuming. Hence it is difficult to deploy such DNNs on devices with limited hardware resources or in applications with strict latency requirements. In order to address this problem, we propose a model compression pipeline to reduce DNN size for speech enhancement, which is based on three kinds of techniques: sparse regularization, iterative pruning and clustering-based quantization. Evaluation results show that our approach substantially reduces the sizes of different DNNs without significantly affecting their enhancement performance. Moreover, we find that training and compressing a large DNN yields higher STOI and PESQ than directly training a small DNN that has a comparable size to the compressed DNN. This further suggests the benefits of using the proposed model compression approach.
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压缩深度神经网络用于高效语音增强
在过去的十年中,深度神经网络(dnn)的使用极大地提高了语音增强的性能。然而,通常需要一个大的深度神经网络来实现强大的增强性能,这种模型既需要大量的计算,又需要大量的内存。因此,很难在硬件资源有限的设备或具有严格延迟要求的应用程序中部署这种dnn。为了解决这个问题,我们提出了一种模型压缩管道来减少语音增强的DNN大小,该管道基于三种技术:稀疏正则化、迭代修剪和基于聚类的量化。评估结果表明,我们的方法大大减少了不同dnn的大小,而不会显著影响其增强性能。此外,我们发现训练和压缩大型DNN比直接训练与压缩DNN大小相当的小型DNN产生更高的STOI和PESQ。这进一步表明了使用所提出的模型压缩方法的好处。
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