A diffusion bridge method with a higher-order ODE solver translates between unpaired neonatal EEG and fetal MEG bursts with near-perfect cycle reconstruction, though translation correctness is not directly verifiable.
Time-Domain Audio Source Separation Based on Wave-U-Net Combined with Discrete Wavelet Transform
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abstract
We propose a time-domain audio source separation method using down-sampling (DS) and up-sampling (US) layers based on a discrete wavelet transform (DWT). The proposed method is based on one of the state-of-the-art deep neural networks, Wave-U-Net, which successively down-samples and up-samples feature maps. We find that this architecture resembles that of multiresolution analysis, and reveal that the DS layers of Wave-U-Net cause aliasing and may discard information useful for the separation. Although the effects of these problems may be reduced by training, to achieve a more reliable source separation method, we should design DS layers capable of overcoming the problems. With this belief, focusing on the fact that the DWT has an anti-aliasing filter and the perfect reconstruction property, we design the proposed layers. Experiments on music source separation show the efficacy of the proposed method and the importance of simultaneously considering the anti-aliasing filters and the perfect reconstruction property.
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Diffusion-based translation between unpaired spontaneous premature neonatal EEG and fetal MEG
A diffusion bridge method with a higher-order ODE solver translates between unpaired neonatal EEG and fetal MEG bursts with near-perfect cycle reconstruction, though translation correctness is not directly verifiable.