Personalized Text to Speech Synthesis through Few Shot Speaker Adaptation with Contrastive Learning

Personalized text-to-speech (TTS) synthesis has the goal of producing natural and expressive speech that emulates the voice of a target speaker with a minimum of data. The models of traditional neural TTS, including Tacotron 2 and Fast Speech 2, need to be trained in large amounts of speaker-specific data and can thus not easily be personalized quickly. We suggest CL-FS-TTS (Contrastive Learning based Few-Shot Text-to-Speech) to solve this problem, a new framework that uses contrastive speaker representation learning to adapt the speaker using only 1030 seconds of reference audio. The CL-FS-TTS architecture has two encoders: a content encoder that identifies linguistic features of text and a speaker encoder trained with the help of supervised contrastive learning to maximize speaker dissimilarity. In adaptation, the model matches speaker embeddings with generated mel-spectrograms with a contrastive consistency loss, enhancing voice and prosodic consistency. We compare CL-FS-TTS with Tacotron 2, Fast Speech 2, AdaSpeech, YourTTS, and Meta-TTS in terms of Mean Opinion Score (MOS), Speaker Similarity Score (SSS), Mel Cepstral Distortion (MCD) and Word Error Rate (WER). The experimental outcomes indicate that CL-FS-TTS has a higher naturalness and similarity of the speaker besides 40% less adaptation time in comparison with baselines. The suggested model lays the foundation of an efficient and strong model of high-quality personalized TTS synthesis in the situation of data scarcity.

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Publication Details

Journal
Elaris Computing Nexus
Published
2025-11-02
DOI
https://doi.org/10.65148/ecn/2025019
Primary Topic
Speech Recognition and Synthesis
Type
article
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article

Personalized Text to Speech Synthesis through Few Shot Speaker Adaptation with Contrastive Learning

Karthikeyan Natarajan
Elaris Computing Nexus
Speech Recognition and Synthesis
article

Personalized Text to Speech Synthesis through Few Shot Speaker Adaptation with Contrastive Learning

Karthikeyan Natarajan
article en

Abstract

Personalized text-to-speech (TTS) synthesis has the goal of producing natural and expressive speech that emulates the voice of a target speaker with a minimum of data. The models of traditional neural TTS, including Tacotron 2 and Fast Speech 2, need to be trained in large amounts of speaker-specific data and can thus not easily be personalized quickly. We suggest CL-FS-TTS (Contrastive Learning based Few-Shot Text-to-Speech) to solve this problem, a new framework that uses contrastive speaker representation learning to adapt the speaker using only 1030 seconds of reference audio. The CL-FS-TTS architecture has two encoders: a content encoder that identifies linguistic features of text and a speaker encoder trained with the help of supervised contrastive learning to maximize speaker dissimilarity. In adaptation, the model matches speaker embeddings with generated mel-spectrograms with a contrastive consistency loss, enhancing voice and prosodic consistency. We compare CL-FS-TTS with Tacotron 2, Fast Speech 2, AdaSpeech, YourTTS, and Meta-TTS in terms of Mean Opinion Score (MOS), Speaker Similarity Score (SSS), Mel Cepstral Distortion (MCD) and Word Error Rate (WER). The experimental outcomes indicate that CL-FS-TTS has a higher naturalness and similarity of the speaker besides 40% less adaptation time in comparison with baselines. The suggested model lays the foundation of an efficient and strong model of high-quality personalized TTS synthesis in the situation of data scarcity.

Elaris Computing Nexus
Trinity College (CA)
Openalex Percentile: Top 82%
Speech Recognition and Synthesis
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