DDP-WM: Disentangled Dynamics Prediction for Efficient World Models
Shicheng Yin, Kaixuan Yin, Weixing Chen, Yang Liu, Guanbin Li, Liang Lin

TL;DR
DDP-WM introduces a disentangled dynamics prediction approach that significantly improves efficiency and accuracy of world models in robotic tasks by decomposing scene dynamics into primary and secondary components.
Contribution
The paper proposes a novel architecture for world models that decomposes latent state evolution into primary and secondary dynamics, enhancing efficiency and performance.
Findings
Achieves approximately 9x inference speedup on Push-T task.
Improves MPC success rate from 90% to 98%.
Demonstrates effectiveness across diverse robotic tasks.
Abstract
World models are essential for autonomous robotic planning. However, the substantial computational overhead of existing dense Transformerbased models significantly hinders real-time deployment. To address this efficiency-performance bottleneck, we introduce DDP-WM, a novel world model centered on the principle of Disentangled Dynamics Prediction (DDP). We hypothesize that latent state evolution in observed scenes is heterogeneous and can be decomposed into sparse primary dynamics driven by physical interactions and secondary context-driven background updates. DDP-WM realizes this decomposition through an architecture that integrates efficient historical processing with dynamic localization to isolate primary dynamics. By employing a crossattention mechanism for background updates, the framework optimizes resource allocation and provides a smooth optimization landscape for planners.…
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Taxonomy
TopicsAutonomous Vehicle Technology and Safety · Robotic Path Planning Algorithms · Multimodal Machine Learning Applications
