SceneReasoner: Sufficient Embodied Scene Understanding From Limited Perception by Explicit Functional Association
Abstract
Sufficient embodied scene understanding serves as the foundation for embodied agents to perceive, interpret, and solve scene-related questions in a scene. Such understanding is often constrained by limited perception, which can be summarized into two aspects: (1) The lack of perceptual abilities in the agent. (2) The scene itself is incomplete. Existing large models-based methods attempt to leverage implicit knowledge to overcome these limitations, but this lacks interpretability and controllability. Inspired by human explainable associative thinking, we propose SceneReasoner framework, which imposes explicit functional associative rules on LLMs to guide the process of the scene understanding. This framework mines deeper functional relationships between objects, enabling the agent to gain sufficient scene understanding from limited perception in a controllable manner. Specifically, SceneReasoner employs an associative knowledge base to provide such rules from two aspects. (1) Functional complementarity of objects in a scene. For instance, in a computer workspace, if the agent perceives a monitor and other unclear objects, it can first analyze the function of the monitor in this area (content display), and then infer the presence of other related objects (e.g., a mouse and keyboard for content input). (2) Commonality of objects in a scene. For example, in a picture-hanging task, when the hammer in the scene is missing, the agent needs to first identify the hammer’s attributes (hard and applying force), and then associate a suitable substitute in the scene (e.g., a hard wrench). Due to such explicit functional association, the agent can rapidly form a sufficient scene understanding and effectively solve scene-related questions. Experimental results demonstrate that such explicit association augmented with functional reasoning can significantly enhance agents’ scene understanding under limited perception. It improves perceptual quality by 9.75% and scene reasoning ability by 21.42% compared with other methods.
Fields of Study & Subjects
Multimodal Machine Learning Applications
Robot Manipulation and Learning
AI-based Problem Solving and Planning
Publication details
- Journal / source
- IEEE Transactions on Circuits and Systems for Video Technology
- Volume
- 36
- Issue
- 5
- Pages
- 6456–6471
- Publication date
- 12 January 2026