FlowECG shows that a flow matching version of SSSD-ECG generates 12-lead ECGs with quality comparable to the diffusion baseline while using only 10 to 25 sampling steps.
Deep generative models as the probability transformation functions
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abstract
This paper introduces a unified theoretical perspective that views deep generative models as probability transformation functions. Despite the apparent differences in architecture and training methodologies among various types of generative models - autoencoders, autoregressive models, generative adversarial networks, normalizing flows, diffusion models, and flow matching - we demonstrate that they all fundamentally operate by transforming simple predefined distributions into complex target data distributions. This unifying perspective facilitates the transfer of methodological improvements between model architectures and provides a foundation for developing universal theoretical approaches, potentially leading to more efficient and effective generative modeling techniques.
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FlowECG: Using Flow Matching to Create a More Efficient ECG Signal Generator
FlowECG shows that a flow matching version of SSSD-ECG generates 12-lead ECGs with quality comparable to the diffusion baseline while using only 10 to 25 sampling steps.