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This research introduces State Transition Pretraining (STP), a novel scaling method for GUI agents that jointly optimizes forward and inverse dynamics models of visual state transitions. By building an internal world model during pretraining, this approach significantly outperforms baselines relying solely on direct trajectory fine-tuning across desktop and mobile benchmarks. The study demonstrates that performance scales steadily with transition data volume, offering a robust new axis for advancing autonomous agent capabilities in complex environments.
Scaling GUI Agents with Visual State Transitions
arXiv:2607.24112v1 Announce Type: new Abstract: We introduce State Transition Pretraining (STP) as a new scaling axis for GUI agents. During the STP stage, we continually pretrain a unified multimodal model on visual state transitions by jointly optimizing inverse dynamics (predicting actions from state changes) and forward dynamics (predicting next states from current states and actions). This optimization equips the model with better action-grounded visual representations and an internal world model of GUI dynamics. When subsequently fine-tuned on trajectories with task instructions, our STP-trained models consistently outperform baselines trained solely via direct trajectory fine-tuning across agent benchmarks in both desktop and mobile GUI scenarios (AgentNetBench, AndroidControl, and GUIOdyssey). Further empirical studies show that joint dynamics optimization yields stable improvements over single-objective training, and downstream performance scales steadily with the volume of transition data.
Abstract:We introduce State Transition Pretraining (STP) as a new scaling axis for GUI agents. During the STP stage, we continually pretrain a unified multimodal model on visual state transitions by jointly optimizing inverse dynamics (predicting actions from state changes) and forward dynamics (predicting next states from current states and actions). This optimization equips the model with better action-grounded visual representations and an internal world model of GUI dynamics. When subsequently fine-tuned on trajectories with task instructions, our STP-trained models consistently outperform baselines trained solely via direct trajectory fine-tuning across agent benchmarks in both desktop and mobile GUI scenarios (AgentNetBench, AndroidControl, and GUIOdyssey). Further empirical studies show that joint dynamics optimization yields stable improvements over single-objective training, and downstream performance scales steadily with the volume of transition data.
Artificial Intelligence (cs.AI)
arXiv:2607.24112 [cs.AI]
(or arXiv:2607.24112v1 [cs.AI] for this version)
https://doi.org/10.48550/arXiv.2607.24112 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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