The work introduces a MAPE-K-inspired dual-AI architecture in which an LLM translates high-level natural-language intentions into executable Python code constrained to a robotic function library, while a VLM provides open-ended semantic grounding through a distillation process, with geometric and semantic thresholds triggering replanning; benchmarked on quadruped exploration tasks in Gazebo across three frontier models, finite tasks show high success rates while open-ended exhaustive tasks degrade, with failures concentrated in semantic grounding, completeness checking, and termination control rather than low-level action execution.
The work introduces a MAPE-K-inspired dual-AI architecture in which an LLM translates high-level natural-language intentions into executable Python code constrained to a robotic function library, while a VLM provides open-ended semantic grounding through a distillation process, with geometric and semantic thresholds triggering replanning; benchmarked on quadruped exploration tasks in Gazebo across three frontier models, finite tasks show high success rates while open-ended exhaustive tasks degrade, with failures concentrated in semantic grounding, completeness checking, and termination control rather than low-level action execution.