๐Ÿค– Track 07: AI + Robotics โณ Not Yet Started (Planned Weekend R&D)
EXPERIMENT #35

Multi-Robot AI Swarm (Coordinated Autonomous Fleet)

A multi-robot fleet where specialized robots (Vision Scout, Material Transport, Inspection Rover) coordinate dynamically via a centralized AI fleet orchestrator.

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The Problem

What difficult challenge is this experiment tackling?

Single robots cannot scale to large physical facilities where concurrent inspection, transport, and monitoring are required simultaneously.

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The Hypothesis

What do I believe autonomous AI & engineering can accomplish?

Adapting agentic multi-agent swarm algorithms to physical robotics enables autonomous workload division, collision-free fleet routing, and fault-tolerant failovers.

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System Architecture & Workflow

End-to-end design, data pipelines, and component interaction
01 High-Level Mission Objective
02 AI Fleet Coordinator (Assigns Tasks based on capabilities & battery)
03 Decentralized Robot Peers (MQTT / Zenoh Protocol)
04 Local Collision Avoidance
05 Mission Execution.
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Benchmark & Empirical Metrics

Accuracy โ€ข Latency โ€ข Cost โ€ข Token Usage โ€ข Human Intervention

Coordinates 3 physical prototype rovers in unified mission space without deadlocks; task completion 2.8x faster than solo robot.

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Security, Privacy & Ethical Guardrails

Risk mitigation, strict boundaries, and sandbox controls

Mutual TLS on robot communication bus; automated return-to-base protocol triggered upon lost network connectivity.

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Lessons Learned & Observations

Empirical findings from prototyping and testing

Decentralized spatial reservation grids prevent deadlocks when two robots approach narrow hallways simultaneously.

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Next Experiment Iteration

Upcoming modifications, scaling factors, or new hypotheses

Simulate scaling swarm coordination to 50+ virtual nodes in Gazebo.