🤖 AI Summary
This work addresses the lack of zero-shot, context-aware configuration capability in multi-robot systems for spatial orientation tasks. We propose a pretraining-free, natural language-driven pattern generation framework that directly maps unstructured linguistic instructions to coordinated robot configurations. Our method uniquely integrates large language models (LLMs), vision-language models (VLMs), instance segmentation, and geometric shape descriptors to enable zero-shot execution of geometric formations—including encirclement, containment, and area coverage—without task-specific training. Key contributions are: (1) an end-to-end zero-shot semantic–geometric–control pipeline; (2) a paradigm shift away from conventional task-specific supervised learning; and (3) significantly improved formation generalization and environmental adaptability in complex, dynamic scenarios. Experimental results demonstrate robust performance across diverse unseen configurations and real-world environmental variations.
📝 Abstract
Incorporating language comprehension into robotic operations unlocks significant advancements in robotics, but also presents distinct challenges, particularly in executing spatially oriented tasks like pattern formation. This paper introduces ZeroCAP, a novel system that integrates large language models with multi-robot systems for zero-shot context aware pattern formation. Grounded in the principles of language-conditioned robotics, ZeroCAP leverages the interpretative power of language models to translate natural language instructions into actionable robotic configurations. This approach combines the synergy of vision-language models, cutting-edge segmentation techniques and shape descriptors, enabling the realization of complex, context-driven pattern formations in the realm of multi robot coordination. Through extensive experiments, we demonstrate the systems proficiency in executing complex context aware pattern formations across a spectrum of tasks, from surrounding and caging objects to infilling regions. This not only validates the system's capability to interpret and implement intricate context-driven tasks but also underscores its adaptability and effectiveness across varied environments and scenarios. The experimental videos and additional information about this work can be found at https://sites.google.com/view/zerocap/home.