DynamicEnvPlan: Learning Embodied Planning Recovery in Dynamic Environments

arXiv CS · · 2 min read · Engineering & Technology

Read research and analysis on DynamicEnvPlan: Learning Embodied Planning Recovery in Dynamic Environments published by ICANEWS, a global research journal for emerging researchers.

Key Takeaways

  • DynamicEnvPlan boosts success rate of embodied planning from 33.3% to 76.2%.
  • It improves across all seven evaluation metrics critical to physical-world interaction, including safety and affordance compliance.
  • The framework uses a data synthesis design involving planning, perturbation, and guarded correction modules to generate recovery-oriented traces.

Why This Matters

Enabling embodied agents to adapt plans under dynamic conditions and recover from execution uncertainties is crucial for reliable operation in physical environments. This framework offers a method for training agents to manage evolving conditions, enhancing robustness and safety in long-horizon tasks.

Overview

DynamicEnvPlan is a closed-loop framework developed for high-level planning in dynamic environments. It addresses the challenge of long-horizon embodied planning for agents operating in physical environments where conditions can change during execution. The framework aims to enable agents to adapt their plans under non-stationary conditions and learn from execution failures by transforming them into signals for recovery training.

Research Context

Physical-world interaction involves inherently dynamic environments that can evolve during task execution. This dynamism necessitates that agents adapt their plans to non-stationary conditions. Existing embodied-task benchmarks can highlight execution failures in such dynamic settings. However, these failures are typically treated as evaluation outcomes rather than as learnable signals that can train agents to recover from deviations. The research focuses on the problem of robust long-horizon embodied planning under environmental deviations and execution uncertainty.

Approach

DynamicEnvPlan extends embodied task execution to include humanoid agents, high-level primitive skills, and structured semantic memory. It incorporates controllable perturbations to simulate dynamic environmental changes. The data synthesis design within DynamicEnvPlan consists of three modules: planning, perturbation, and guarded correction. These modules are designed to convert dynamic execution states into recovery-oriented traces.

The resulting recovery-oriented traces are subsequently used for staged supervised fine-tuning. This fine-tuning process allows the planner to learn from both nominal execution trajectories and trajectories that involve recovery from perturbations. The framework was evaluated across 104 task-scene combinations, encompassing i.i.d. (independent and identically distributed), compositional generalization, and out-of-distribution settings for both fine-tuning and evaluation.

Findings

DynamicEnvPlan demonstrated a significant improvement in success rates compared to a base planner. The success rate for the base planner was 33.3%, while DynamicEnvPlan boosted this to 76.2%. In addition to the success rate, the framework showed improvements across all seven evaluation metrics critical for physical-world interaction. These critical metrics include safety and affordance compliance.

Why This Matters

The ability of embodied agents to adapt plans and recover from unexpected environmental changes is critical for robust operation in real-world scenarios. By converting execution failures into learnable signals, DynamicEnvPlan provides a mechanism for training agents to handle the inherent dynamism and uncertainty of physical environments, leading to more reliable and safer long-horizon task execution.

Key Limitations Mentioned by Researchers

The source does not explicitly mention limitations of the DynamicEnvPlan framework or the research.

Research Information

Institution
arXiv CS
Original Study
View Publication
Source
arXiv CS

About ICANEWS

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