CLMT: A Parameter-Efficient Foundation Model for Physiological Signal Synthesis
Researchers propose Compact Latent Manifold Translation (CLMT), a 0.09B parameter unified framework for cross-modal and cross-frequency synthesis of physiological signals like ECG and PPG. CLMT uses a two-stage discrete translation paradigm: a Universal Tokenizer with Hierarchical Residual Vector Quantization (RVQ) decouples heterogeneous signals into isolated discrete latent manifolds, preventing modality interference. A Context-Prompted Latent Transformer then enables high-fidelity generation across modalities and frequencies. The model addresses modality entanglement and high computational costs in existing foundation models, aiming for edge-device deployment. The paper is available on arXiv.
Key facts
- CLMT is a 0.09B parameter framework
- It targets cross-modal and cross-frequency physiological signal synthesis
- Uses a two-stage discrete translation paradigm
- Universal Tokenizer employs Hierarchical Residual Vector Quantization (RVQ)
- Decouples signals into isolated discrete latent manifolds
- Context-Prompted Latent Transformer enables generation
- Aims to reduce modality entanglement and computational costs
- Paper available on arXiv
Entities
Institutions
- arXiv