AdvFD: Boosting Visual Generation via Adversarial Fr'echet Distance Loss
Summary
The paper introduces Adversarial Fréchet Distance (AdvFD), which adds a learnable adversarial feature space to static Fréchet losses to improve generator post-training, with real-feature whitening to stabilize optimization.
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Paper page - AdvFD: Boosting Visual Generation via Adversarial Fr’echet Distance Loss
Source: https://huggingface.co/papers/2608.11205
Abstract
Adversarial Fréchet Distance improves generator post-training by adding a learnable adversarial feature space to static Fréchet losses, with whitening to stabilize optimization.
Fréchet distancehas recently emerged as an effective distribution-level objective forgenerator post-training, complementing the conventional sample-level diffusion andflow-matching losses. However, directly optimizing Fréchet objectives can causeFréchet hacking. The target metrics keep improving, but visual quality and Fréchet alignment in other feature spaces may stagnate or deteriorate. We attribute this failure to the staticpretrained feature spacesused by existing Fréchet losses. These feature spaces provide incomplete and fixed views of the differences between real and generated distributions. To address this limitation, we proposeAdversarial Fréchet Distance(AdvFD), which complements the static representation targets in FD-Loss with a calibratedadversarially learned representation.AdvFDaugments the original static Fréchet objective with a learnable representation that adversarially maximizes the Fréchet discrepancy between real and generated samples, while the generator minimizes the same discrepancy in the resulting adaptive feature space. To prevent the adversarial representation from trivially increasing the objective through feature amplification, we further introducereal-feature whitening, which normalizes its scale and covariance geometry and stabilizes the min--max optimization. Extensive experiments show thatAdvFDconsistently improvesone-step generatorpost-training across both JiT and pMF backbones and across different model scales.
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