Generative Modeling via Drifting

Generative modeling can be formulated as learning a mapping f such that its pushforward distribution matches the data distribution. The pushforward behavior can be carried out iteratively at inference time, for example in diffusion and flow-based models. In this paper, we propose a new paradigm called Drifting Models, which evolve the pushforward distribution during training and naturally admit one-step inference. We introduce a drifting field that governs the sample movement and achieves equilibrium when the distributions match. This leads to a training objective that allows the neural network optimizer to evolve the distribution. In experiments, our one-step generator achieves state-of-the-art results on ImageNet at 256 x 256 resolution, with an FID of 1.54 in latent space and 1.61 in pixel space. We hope that our work opens up new opportunities for high-quality one-step generation.

Fast Kd-Trees for theKullback-Leibler…Fast Kd-Trees for the Kullback-Leibler Divergence and Other Decomposable Bregman DivergencesScore-Based GenerativeModeling through…Score-Based Generative Modeling through Stochastic Differential EquationsFlow Matching forGenerative ModelingFlow Matching for Generative ModelingFlow Straight and Fast:Learning to Generate an…Flow Straight and Fast: Learning to Generate and Transfer Data with Rectified FlowImproved Techniques forTraining Consistency…Improved Techniques for Training Consistency ModelsInductive MomentMatchingInductive Moment MatchingAdvancing End-to-EndPixel Space Generative…Advancing End-to-End Pixel Space Generative Modeling via Self-supervised Pre-trainingOne Step Diffusion viaShortcut ModelsOne Step Diffusion via Shortcut ModelsImproved Mean Flows: Onthe Challenges of…Improved Mean Flows: On the Challenges of Fastforward Generative ModelsRepresentation Alignmentfor Generation: Trainin…Representation Alignment for Generation: Training Diffusion Transformers Is Easier Than You ThinkMean Flows for One-stepGenerative ModelingMean Flows for One-step Generative ModelingDiffusion Transformerswith Representation…Diffusion Transformers with Representation AutoencodersOne-Step GenerativeModeling via Wasserstei…One-Step Generative Modeling via Wasserstein Gradient FlowsA Unified View ofDrifting and Score-Base…A Unified View of Drifting and Score-Based ModelsGenerative Drifting isSecretly Score Matching…Generative Drifting is Secretly Score Matching: a Spectral and Variational PerspectiveGradient Flow Drifting:Generative Modeling via…Gradient Flow Drifting: Generative Modeling via Wasserstein Gradient Flows of KDE-Approximated DivergencesSinkhorn-DriftingGenerative ModelsSinkhorn-Drifting Generative ModelsDrifting Fields are notConservativeDrifting Fields are not ConservativeA Long-Short Flow-MapPerspective for Driftin…A Long-Short Flow-Map Perspective for Drifting ModelsDriftXpress: FasterDrifting Models via…DriftXpress: Faster Drifting Models via Projected RKHS FieldsFinite-ParticleConvergence Rates for…Finite-Particle Convergence Rates for Conservative and Non-Conservative Drifting ModelsIdentifiability andStability of Generative…Identifiability and Stability of Generative Drifting with Companion-Elliptic Kernel FamiliesOn the WassersteinGradient Flow…On the Wasserstein Gradient Flow Interpretation of Drifting ModelsDrift-Based PolicyOptimization: Native…Drift-Based Policy Optimization: Native One-Step Policy Learning for Online Robot ControlGenerative Modeling viaDriftingGenerative Modeling via Drifting過去の参考文献中心の論文この論文を引用する論文古い新しい

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