Routing Policy Optimization for Online Diffusion Reinforcement Learning
Reinforcement learning can align visual generators with reward signals beyond their pretraining objectives, but existing score-function methods typically introduce stochasticity by perturbing the reverse denoising trajectory, leading to costly rollout-based optimization. We instead ask whether stochastic exploration can be introduced inside the generator while preserving its or
Reading in Plain English mode — toggle below to switch
Reinforcement learning can align visual generators with reward signals beyond their pretraining objectives, but existing score-function methods typically introduce stochasticity by perturbing the reverse denoising trajectory, leading to costly rollout-based optimization. We instead ask whether stochastic exploration can be introduced inside the generator while preserving its or
This research introduces a novel approach to integrate stochastic exploration into visual generators for reinforcement learning without perturbing the original sampler, potentially leading to more efficient and stable training. ML engineers can leverage this method to optimize diffusion models for specific reward signals, reducing the computational cost associated with traditional rollout-based optimization.