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DiffuserLite: Towards Real-time Diffusion Planning
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Diffusion planning has been recognized as an effective decision-making paradigm in various domains. The capability of generating high-quality long-horizon trajectories makes it a promising research direction. However, existing diffusion planning methods suffer from low decision-making frequencies due to the expensive iterative sampling cost. To alleviate this, we introduce DiffuserLite, a super fast and lightweight diffusion planning framework, which employs a planning refinement process (PRP) to generate coarse-to-fine-grained trajectories, significantly reducing the modeling of redundant information and leading to notable increases in decision-making frequency. Our experimental results demonstrate that DiffuserLite achieves a decision-making frequency of 122.2Hz (112.7x faster than predominant frameworks) and reaches state-of-the-art performance on D4RL, Robomimic, and FinRL benchmarks. In addition, DiffuserLite can also serve as a flexible plugin to increase the decision-making frequency of other diffusion planning algorithms, providing a structural design reference for future works. More details and visualizations are available at https://diffuserlite.github.io/.
Forward citations
Cited by 2 Pith papers
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Train-Once Plan-Anywhere Kinodynamic Motion Planning via Diffusion Trees
A flow-matching policy guides RRT tree expansion, preserving completeness while raising success rates on out-of-distribution kinodynamic planning tasks.
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Decision Flow Policy Optimization
Decision Flow frames the gradual action generation of flow-based policies as a flow MDP and updates the flow policy with flow-level value functions, reporting state-of-the-art results on several D4RL tasks.
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