SwiftBot: A Decentralized Platform for LLM-Powered Federated Robotic Task Execution

arXiv cs.RO / 3/24/2026

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Key Points

  • SwiftBot is proposed as a decentralized federated robotic task execution platform that converts natural-language instructions into distributed robot control without centralized coordination using LLM-based task decomposition.
  • The system addresses prior limitations by replacing rigid hand-coded planners with semantic decomposition and by managing compute across heterogeneous edge devices via intelligent container orchestration over a DHT overlay.
  • SwiftBot claims strong decomposition performance (94.3% accuracy across diverse tasks) while improving responsiveness through faster task startup and reduced training latency.
  • Under high load, it further aims to improve reliability by reducing tail latency via federated warm container migration that adapts when workloads shift dynamically.
  • Experiments on multimedia tasks suggest that jointly designing semantic understanding (LLM decomposition) and federated resource management can deliver both flexibility and efficiency for robot task control.

Abstract

Federated robotic task execution systems require bridging natural language instructions to distributed robot control while efficiently managing computational resources across heterogeneous edge devices without centralized coordination. Existing approaches face three limitations: rigid hand-coded planners requiring extensive domain engineering, centralized coordination that contradicts federated collaboration as robots scale, and static resource allocation failing to share containers across robots when workloads shift dynamically. We present SwiftBot, a federated task execution platform that integrates LLM-based task decomposition with intelligent container orchestration over a DHT overlay, enabling robots to collaboratively execute tasks without centralized control. SwiftBot achieves 94.3% decomposition accuracy across diverse tasks, reduces task startup latency by 1.5-5.4x and average training latency by 1.4-2.5x, and improves tail latency by 1.2-4.7x under high load through federated warm container migration. Evaluation on multimedia tasks validates that co-designing semantic understanding and federated resource management enables both flexibility and efficiency for robotic task control.