CDCGen: Cross-Domain Conditional Generation via Normalizing Flows and Adversarial Training
Hari Prasanna Das, Ryan Tran, Japjot Singh, Yu-Wen Lin, Costas J., Spanos

TL;DR
CDCGen is a novel transfer learning framework that uses normalizing flows and adversarial training to generate conditional synthetic data in a target domain without label information, enhancing data diversity for label-scarce systems.
Contribution
It introduces a cross-domain conditional generation method combining normalizing flows with adversarial training for domain alignment and synthetic data generation without target labels.
Findings
Effective on benchmark datasets
Generates diverse synthetic samples conditioned on attributes
Improves data augmentation in label-scarce scenarios
Abstract
How to generate conditional synthetic data for a domain without utilizing information about its labels/attributes? Our work presents a solution to the above question. We propose a transfer learning-based framework utilizing normalizing flows, coupled with both maximum-likelihood and adversarial training. We model a source domain (labels available) and a target domain (labels unavailable) with individual normalizing flows, and perform domain alignment to a common latent space using adversarial discriminators. Due to the invertible property of flow models, the mapping has exact cycle consistency. We also learn the joint distribution of the data samples and attributes in the source domain by employing an encoder to map attributes to the latent space via adversarial training. During the synthesis phase, given any combination of attributes, our method can generate synthetic samples…
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Taxonomy
TopicsGenerative Adversarial Networks and Image Synthesis · Domain Adaptation and Few-Shot Learning · Anomaly Detection Techniques and Applications
