Duality Temporal-channel-frequency Attention Enhanced Speaker Representation Learning
Li Zhang, Qing Wang, Lei Xie

TL;DR
This paper introduces a novel Duality Temporal-Channel-Frequency (DTCF) attention mechanism that enhances speaker representation learning by capturing mutual interactions across temporal, channel, and frequency scales, improving verification performance.
Contribution
The paper proposes the DTCF attention module that models interactions among temporal, channel, and frequency features, leading to more discriminative speaker representations in CNN-based networks.
Findings
DTCF attention reduces EER and minDCF on CN-Celeb and VoxCeleb datasets.
ResNet34-DTCF outperforms ResNet34-SE in speaker verification tasks.
Significant improvements in speaker verification metrics demonstrate effectiveness.
Abstract
The use of channel-wise attention in CNN based speaker representation networks has achieved remarkable performance in speaker verification (SV). But these approaches do simple averaging on time and frequency feature maps before channel-wise attention learning and ignore the essential mutual interaction among temporal, channel as well as frequency scales. To address this problem, we propose the Duality Temporal-Channel-Frequency (DTCF) attention to re-calibrate the channel-wise features with aggregation of global context on temporal and frequency dimensions. Specifically, the duality attention - time-channel (T-C) attention as well as frequency-channel (F-C) attention - aims to focus on salient regions along the T-C and F-C feature maps that may have more considerable impact on the global context, leading to more discriminative speaker representations. We evaluate the effectiveness of…
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Taxonomy
TopicsSpeech Recognition and Synthesis · Speech and Audio Processing · Music and Audio Processing
