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AI and Semantic Communication for Infrastructure Monitoring in 6G-Driven Drone Swarms

Tasnim Ahmed, Salimur Choudhury

TL;DR

The paper tackles real-time, automated infrastructure inspection with drone swarms by addressing 5G latency and reliability limitations and the high cost of manual inspections. It proposes a 6G-enabled framework that combines URLLC, semantic communication, edge AI, and LLM-based structured outputs to orchestrate a swarm and generate professional reports from semantic data. A conceptual system model, driving technologies, and a preliminary implementation are presented, including onboard road-monitoring AI and a network-performance analysis that highlights improvements in latency and reliability. The work demonstrates a path toward scalable, energy-efficient automated infrastructure monitoring and reports potential for digital twins to further enhance proactive management.

Abstract

The adoption of unmanned aerial vehicles to monitor critical infrastructure is gaining momentum in various industrial domains. Organizational imperatives drive this progression to minimize expenses, accelerate processes, and mitigate hazards faced by inspection personnel. However, traditional infrastructure monitoring systems face critical bottlenecks-5G networks lack the latency and reliability for large-scale drone coordination, while manual inspections remain costly and slow. We propose a 6G-enabled drone swarm system that integrates ultra-reliable, low-latency communications, edge AI, and semantic communication to automate inspections. By adopting LLMs for structured output and report generation, our framework is hypothesized to reduce inspection costs and improve fault detection speed compared to existing methods.

AI and Semantic Communication for Infrastructure Monitoring in 6G-Driven Drone Swarms

TL;DR

The paper tackles real-time, automated infrastructure inspection with drone swarms by addressing 5G latency and reliability limitations and the high cost of manual inspections. It proposes a 6G-enabled framework that combines URLLC, semantic communication, edge AI, and LLM-based structured outputs to orchestrate a swarm and generate professional reports from semantic data. A conceptual system model, driving technologies, and a preliminary implementation are presented, including onboard road-monitoring AI and a network-performance analysis that highlights improvements in latency and reliability. The work demonstrates a path toward scalable, energy-efficient automated infrastructure monitoring and reports potential for digital twins to further enhance proactive management.

Abstract

The adoption of unmanned aerial vehicles to monitor critical infrastructure is gaining momentum in various industrial domains. Organizational imperatives drive this progression to minimize expenses, accelerate processes, and mitigate hazards faced by inspection personnel. However, traditional infrastructure monitoring systems face critical bottlenecks-5G networks lack the latency and reliability for large-scale drone coordination, while manual inspections remain costly and slow. We propose a 6G-enabled drone swarm system that integrates ultra-reliable, low-latency communications, edge AI, and semantic communication to automate inspections. By adopting LLMs for structured output and report generation, our framework is hypothesized to reduce inspection costs and improve fault detection speed compared to existing methods.

Paper Structure

This paper contains 13 sections, 6 figures, 1 table.

Figures (6)

  • Figure 1: Proposed system model. LLM processes unstructured user requests in natural language, and corresponding tasks are assigned to the drones. The swarm of drones collects multimodal data from the environment and processes it with onboard AI. SC facilitates the transmission of processed information (shown in the upper part of the figure). The combined information is passed to the LLM server for report generation.
  • Figure 2: Activity diagram for infrastructure monitoring.
  • Figure 3: Embedded device for onboard AI processing on drones.
  • Figure 4: Structured Output from LLM with Pydantic Class
  • Figure 5: Road condition monitoring using edge AI device from video frames.
  • ...and 1 more figures