VQ-CTAP: Cross-Modal Fine-Grained Sequence Representation Learning for Speech Processing

Fuente: arXiv
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Main Authors: Qiang, Chunyu, Geng, Wang, Zhao, Yi, Fu, Ruibo, Wang, Tao, Gong, Cheng, Wang, Tianrui, Liu, Qiuyu, Yi, Jiangyan, Wen, Zhengqi, Zhang, Chen, Che, Hao, Wang, Longbiao, Dang, Jianwu, Tao, Jianhua
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Published: 2024
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author Qiang, Chunyu
Geng, Wang
Zhao, Yi
Fu, Ruibo
Wang, Tao
Gong, Cheng
Wang, Tianrui
Liu, Qiuyu
Yi, Jiangyan
Wen, Zhengqi
Zhang, Chen
Che, Hao
Wang, Longbiao
Dang, Jianwu
Tao, Jianhua
author_facet Qiang, Chunyu
Geng, Wang
Zhao, Yi
Fu, Ruibo
Wang, Tao
Gong, Cheng
Wang, Tianrui
Liu, Qiuyu
Yi, Jiangyan
Wen, Zhengqi
Zhang, Chen
Che, Hao
Wang, Longbiao
Dang, Jianwu
Tao, Jianhua
contents Deep learning has brought significant improvements to the field of cross-modal representation learning. For tasks such as text-to-speech (TTS), voice conversion (VC), and automatic speech recognition (ASR), a cross-modal fine-grained (frame-level) sequence representation is desired, emphasizing the semantic content of the text modality while de-emphasizing the paralinguistic information of the speech modality. We propose a method called "Vector Quantized Contrastive Token-Acoustic Pre-training (VQ-CTAP)", which uses the cross-modal aligned sequence transcoder to bring text and speech into a joint multimodal space, learning how to connect text and speech at the frame level. The proposed VQ-CTAP is a paradigm for cross-modal sequence representation learning, offering a promising solution for fine-grained generation and recognition tasks in speech processing. The VQ-CTAP can be directly applied to VC and ASR tasks without fine-tuning or additional structures. We propose a sequence-aware semantic connector, which connects multiple frozen pre-trained modules for the TTS task, exhibiting a plug-and-play capability. We design a stepping optimization strategy to ensure effective model convergence by gradually injecting and adjusting the influence of various loss components. Furthermore, we propose a semantic-transfer-wise paralinguistic consistency loss to enhance representational capabilities, allowing the model to better generalize to unseen data and capture the nuances of paralinguistic information. In addition, VQ-CTAP achieves high-compression speech coding at a rate of 25Hz from 24kHz input waveforms, which is a 960-fold reduction in the sampling rate. The audio demo is available at https://qiangchunyu.github.io/VQCTAP/
format Preprint
id arxiv_https___arxiv_org_abs_2408_05758
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle VQ-CTAP: Cross-Modal Fine-Grained Sequence Representation Learning for Speech Processing
Qiang, Chunyu
Geng, Wang
Zhao, Yi
Fu, Ruibo
Wang, Tao
Gong, Cheng
Wang, Tianrui
Liu, Qiuyu
Yi, Jiangyan
Wen, Zhengqi
Zhang, Chen
Che, Hao
Wang, Longbiao
Dang, Jianwu
Tao, Jianhua
Audio and Speech Processing
Artificial Intelligence
Computation and Language
Sound
Deep learning has brought significant improvements to the field of cross-modal representation learning. For tasks such as text-to-speech (TTS), voice conversion (VC), and automatic speech recognition (ASR), a cross-modal fine-grained (frame-level) sequence representation is desired, emphasizing the semantic content of the text modality while de-emphasizing the paralinguistic information of the speech modality. We propose a method called "Vector Quantized Contrastive Token-Acoustic Pre-training (VQ-CTAP)", which uses the cross-modal aligned sequence transcoder to bring text and speech into a joint multimodal space, learning how to connect text and speech at the frame level. The proposed VQ-CTAP is a paradigm for cross-modal sequence representation learning, offering a promising solution for fine-grained generation and recognition tasks in speech processing. The VQ-CTAP can be directly applied to VC and ASR tasks without fine-tuning or additional structures. We propose a sequence-aware semantic connector, which connects multiple frozen pre-trained modules for the TTS task, exhibiting a plug-and-play capability. We design a stepping optimization strategy to ensure effective model convergence by gradually injecting and adjusting the influence of various loss components. Furthermore, we propose a semantic-transfer-wise paralinguistic consistency loss to enhance representational capabilities, allowing the model to better generalize to unseen data and capture the nuances of paralinguistic information. In addition, VQ-CTAP achieves high-compression speech coding at a rate of 25Hz from 24kHz input waveforms, which is a 960-fold reduction in the sampling rate. The audio demo is available at https://qiangchunyu.github.io/VQCTAP/
title VQ-CTAP: Cross-Modal Fine-Grained Sequence Representation Learning for Speech Processing
topic Audio and Speech Processing
Artificial Intelligence
Computation and Language
Sound
url https://arxiv.org/abs/2408.05758