FUSE, an entropy-gated planner that combines amortized viewpoint prediction with explicit semantic-geometric exploration, achieves the best non-oracle active functional grounding results on a new Habitat benchmark while cutting compute by 1.33x versus full explicit exploration.
GCNGrasp-VP: Affordance-Guided View Planning for Efficient Task-Oriented Grasping
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abstract
Task-oriented grasping performance degrades significantly when object views suffer from occlusions. Existing task-oriented grasping methods typically assume task-relevant regions are visible in the initial frame, while view planning approaches enable active perception but often ignore task semantics and rely on time-consuming scene reconstruction. To address these limitations, we present GCNGrasp-VP, an efficient framework integrating affordance field prediction with active view planning. Central to this framework is GCNGrasp-v2, a task-oriented grasp model that simultaneously supports grasp evaluation and affordance field prediction, achieving constant-time inference complexity. Leveraging this capability, our Affordance-guided View Planner (Affordance-VP) utilizes the affordance field as an information gain metric to guide camera observation of task-relevant regions without requiring scene reconstruction. View planning results show that our method significantly outperforms scene-uncertainty-driven baselines with only one view adjustment. Real-world validation further confirms substantial improvements in grasp success rates for single-object scenarios while maintaining millisecond-level computational latency. Code and models are available at https://github.com/Instinct323/GCNGrasp-VP.
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cs.RO 1years
2026 1verdicts
CONDITIONAL 1representative citing papers
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FUSE: Active Functional Affordance Grounding through Adaptive Semantic-Geometric Evidence Acquisition
FUSE, an entropy-gated planner that combines amortized viewpoint prediction with explicit semantic-geometric exploration, achieves the best non-oracle active functional grounding results on a new Habitat benchmark while cutting compute by 1.33x versus full explicit exploration.