TES-VC can change both the speaker's voice and the acoustic environment of an audio clip from text prompts while preserving the words, using retrieval of known timbre embeddings and latent diffusion trained on synthetic mixtures.
Leveraging Diverse Semantic-based Audio Pretrained Models for Singing Voice Conversion
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abstract
Singing Voice Conversion (SVC) is a technique that enables any singer to perform any song. To achieve this, it is essential to obtain speaker-agnostic representations from the source audio, which poses a significant challenge. A common solution involves utilizing a semantic-based audio pretrained model as a feature extractor. However, the degree to which the extracted features can meet the SVC requirements remains an open question. This includes their capability to accurately model melody and lyrics, the speaker-independency of their underlying acoustic information, and their robustness for in-the-wild acoustic environments. In this study, we investigate the knowledge within classical semantic-based pretrained models in much detail. We discover that the knowledge of different models is diverse and can be complementary for SVC. Based on the above, we design a Singing Voice Conversion framework based on Diverse Semantic-based Feature Fusion (DSFF-SVC). Experimental results demonstrate that DSFF-SVC can be generalized and improve various existing SVC models, particularly in challenging real-world conversion tasks. Our demo website is available at https://diversesemanticsvc.github.io/.
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In This Environment, As That Speaker: A Text-Driven Framework for Multi-Attribute Speech Conversion
TES-VC can change both the speaker's voice and the acoustic environment of an audio clip from text prompts while preserving the words, using retrieval of known timbre embeddings and latent diffusion trained on synthetic mixtures.