基于监督深度学习的语音增强损失函数的综合视图

Sebastian Braun, I. Tashev
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引用次数: 46

摘要

用于实时应用的基于深度学习的语音增强最近取得了很大进展。由于缺乏可处理的感知优化目标,围绕训练损失出现了许多神话,而在许多情况下,损失函数对成功的贡献尚未与其他因素(如网络架构、特征或训练程序)隔离开来。在这项工作中,我们研究了适合在线逐帧处理的递归神经网络架构的各种损失谱函数。我们将幅度仅与相位感知损失,比率,相关指标和压缩指标联系起来。我们的研究结果表明,即使在相位没有增强的情况下,将仅大小目标与相位感知目标相结合总是会导致改进。此外,使用压缩的光谱值也会产生显著的改进。另一方面,相位敏感的改进是最好的实现线性域损失,如平均绝对误差。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A consolidated view of loss functions for supervised deep learning-based speech enhancement
Deep learning-based speech enhancement for real-time applications recently made large advancements. Due to the lack of a tractable perceptual optimization target, many myths around training losses emerged, whereas the contribution to success of the loss functions in many cases has not been investigated isolated from other factors such as network architecture, features, or training procedures. In this work, we investigate a wide variety of loss spectral functions for a recurrent neural network architecture suitable to operate in online frame-by-frame processing. We relate magnitude-only with phase-aware losses, ratios, correlation metrics, and compressed metrics. Our results reveal that combining magnitude-only with phase-aware objectives always leads to improvements, even when the phase is not enhanced. Furthermore, using compressed spectral values also yields a significant improvement. On the other hand, phase-sensitive improvement is best achieved by linear domain losses such as mean absolute error.
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