使用1D卷积网络的音频耳蜗图分析和合成库

Elias Nemer
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引用次数: 0

摘要

音频信号的时频变换和频谱表示通常用于各种机器学习应用。用梅尔谱图或耳蜗图等特征训练网络已被证明比用时间样本训练更有效。在实际实现中,这些是在单独的处理器上生成的,或者是预先计算并存储在磁盘上的,这需要额外的努力,并且很难试验不同的变体。在本文中,我们提供了一个PyTorch框架来生成耳蜗图,以及使用内置可训练的conv1d()层进行分析和重新合成的时域复杂滤波器组。这允许作为更大网络的一部分在飞行中计算光谱特征,并允许对不同参数进行实验。分析/合成库能够构建在复杂子带上运行的可训练网络,其中需要重新合成时间样本。卷积核可以从随机值中训练,也可以初始化并冻结,或者初始化并与它们所在的任何网络的其余部分一起连续训练。
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Audio Cochleogram with Analysis and Synthesis Banks Using 1D Convolutional Networks
Time-Frequency transformation and spectral representations of audio signals are commonly used in various machine learning applications. Training a network on features such as the Mel-Spectrogram or Cochleogram has been proven more effective than training on time samples. In practical realizations, these are generated on a separate processor or pre-computed and stored on disk, requiring additional efforts and making it difficult to experiment with different variants. In this paper, we provide a PyTorch framework for generating the Cochleogram as well as the time-domain complex filter-banks for analysis and re-synthesis using the built-in trainable conv1d() layer. This allows computing this spectral feature on the fly as part of a larger network and enables experimenting with varying parameters. The analysis / synthesis banks enable building a trainable network that operates on complex subbands, where resynthesizing the time samples is desirable. The convolutional kernels may be trained from random values, or may be initialized and frozen or initialized and continuously trained with the rest of any network they are part of.
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