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This research introduces STRIPS-WM, a novel framework that learns symbolic world models directly from raw visual transitions to enable classical planning for robotic manipulation tasks. By distilling learned predicates into a visual encoder, the method effectively bridges high-dimensional image inputs with sparse, action-relevant propositional logic. The approach demonstrates improved success rates in long-horizon rearrangement tasks compared to standard visual rollout and latent graph-search baselines.
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STRIPS-WM: Learning Grounded Propositional STRIPS-style World Models from Images

arXiv3 min de cititArticolul și perspectiva sunt în engleză.

arXiv:2606.06832v2 Announce Type: replace Abstract: Robots performing long-horizon visual manipulation observe high-dimensional images, but successful plans depend on action-relevant facts: what can be done now and what changes afterward. A useful planning representation should discard irrelevant visual details while preserving action applicability and effects. Classical task planners exploit this structure through symbolic operators with preconditions and effects, but obtaining such representations from raw visual experience remains challenging. We study a visual task-planning setting in which a robot receives only image transitions: the current image, executed high-level action, and the resulting image. At test time, given a start image and a goal image, the robot must produce a sequence of high-level actions that reaches the goal. To address this problem, we introduce STRIPS-WM, a framework for learning image-grounded STRIPS-style world models directly from visual transitions. STRIPS-WM first induces a finite abstract transition graph from images, then learns latent binary predicates and one grounded propositional operator per action label. The learned operators form a symbolic action model with sparse preconditions and add/delete effects. Finally, the learned predicates are distilled into a visual encoder, enabling classical planning directly from novel start and goal images. Experiments on visual rearrangement tasks show that STRIPS-WM improves image-to-plan success over the tested visual rollout, latent graph-search and latent-symbolic baselines.

Abstract:Robots performing long-horizon visual manipulation observe high-dimensional images, but successful plans depend on action-relevant facts: what can be done now and what changes afterward. A useful planning representation should discard irrelevant visual details while preserving action applicability and effects. Classical task planners exploit this structure through symbolic operators with preconditions and effects, but obtaining such representations from raw visual experience remains challenging. We study a visual task-planning setting in which a robot receives only image transitions: the current image, executed high-level action, and the resulting image. At test time, given a start image and a goal image, the robot must produce a sequence of high-level actions that reaches the goal. To address this problem, we introduce STRIPS-WM, a framework for learning image-grounded STRIPS-style world models directly from visual transitions. STRIPS-WM first induces a finite abstract transition graph from images, then learns latent binary predicates and one grounded propositional operator per action label. The learned operators form a symbolic action model with sparse preconditions and add/delete effects. Finally, the learned predicates are distilled into a visual encoder, enabling classical planning directly from novel start and goal images. Experiments on visual rearrangement tasks show that STRIPS-WM improves image-to-plan success over the tested visual rollout, latent graph-search and latent-symbolic baselines.

Accepted at the Conference on Robot Learning (CoRL) 2026. Project website: this https URL

Robotics (cs.RO)

arXiv:2606.06832 [cs.RO]

(or arXiv:2606.06832v2 [cs.RO] for this version)

https://doi.org/10.48550/arXiv.2606.06832 Focus to learn more arXiv-issued DOI via DataCite

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