mlsanityData to 19 Oct 2026

A Deep Learning Loss Function based on Auditory Power Compression for Speech Enhancement

arXiv 2108.11877 ↗First posted 26 Aug 2021eess.AS cs.SDcited by 2

On the map: Speech and audio language models → Speech enhancement and noise suppression

Abstract (arXiv)

Deep learning technology has been widely applied to speech enhancement. While testing the effectiveness of various network structures, researchers are also exploring the improvement of the loss function used in network training. Although the existing methods have considered the auditory characteristics of speech or the reasonable expression of signal-to-noise ratio, the correlation with the auditory evaluation score and the applicability of the calculation for gradient optimization still need to be improved. In this paper, a signal-to-noise ratio loss function based on auditory power compression is proposed. The experimental results show that the overall correlation between the proposed function and the indexes of objective speech intelligibility, which is better than other loss functions. For the same speech enhancement model, the training effect of this method is also better than other comparison methods.

Key facts. Cited by 2 papers in the map (data through 19 Oct 2026). Placed in Speech enhancement and noise suppression, one of 11 directions in Speech and audio language models. Builds on 15 of its 33 references that are in the map. First posted on arXiv 26 Aug 2021.

Builds on

15 of 33 references.

Closest ancestors · 5

Same direction, newest first

  1. 2021Glance and Gaze: A Collaborative Learning Framework for Single-channel Speech Enhancement22 Jun
  2. 2021DCCRN+: Channel-wise Subband DCCRN with SNR Estimation for Speech Enhancement16 Jun
  3. 2021Complex Spectral Mapping With Attention Based Convolution Recurrent Neural Network for Speech Enhancement12 Apr
  4. 2021Real-time Denoising and Dereverberation with Tiny Recurrent U-Net5 Feb
  5. 2021Monaural Speech Enhancement with Complex Convolutional Block Attention Module and Joint Time Frequency Losses3 Feb

Other references · 10

  1. 2014Adam: A Method for Stochastic Optimizationcited by 38,210
  2. 2014Empirical Evaluation of Gated Recurrent Neural Networks on Sequence Modelingcited by 2,429
  3. 2020DNSMOS: A Non-Intrusive Perceptual Objective Speech Quality metric to evaluate Noise Suppressorscited by 356
  4. 2020DCCRN: Deep Complex Convolution Recurrent Network for Phase-Aware Speech Enhancementcited by 284
  5. 2021Interspeech 2021 Deep Noise Suppression Challengecited by 96
  6. 2016Single-Channel Multi-Speaker Separation using Deep Clusteringcited by 61
  7. 2018Differentiable Consistency Constraints for Improved Deep Speech Enhancementcited by 53
  8. 2020Data augmentation and loss normalization for deep noise suppressioncited by 42
  9. 2019Non-intrusive speech quality assessment using neural networkscited by 19
  10. 2019Learning with Learned Loss Function: Speech Enhancement with Quality-Net to Improve Perceptual Evaluation of Speech Qualitycited by 17

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Cited by year

Citing papers per year: 2022: 2.

2 papers.

Similar, not cited

Close in wording, no citation either way

  1. 2022A Novel Speech Intelligibility Enhancement Model based on CanonicalCorrelation and Deep Learning
  2. 2022A Speech Intelligibility Enhancement Model based on Canonical Correlation and Deep Learning for Hearing-Assistive Technologies
  3. 2024Using Speech Foundational Models in Loss Functions for Hearing Aid Speech Enhancement
  4. 2025Model as Loss: A Self-Consistent Training Paradigm
  5. 2024How to train your ears: Auditory-model emulation for large-dynamic-range inputs and mild-to-severe hearing losses
  6. 2022Joint Noise Reduction and Listening Enhancement for Full-End Speech Enhancement
  7. 2022A two-stage full-band speech enhancement model with effective spectral compression mapping
  8. 2023High-Fidelity Noise Reduction with Differentiable Signal Processing