Multi-Protocol Remote Monitoring for Radio Networks

aerospace
Multi-Protocol Remote Monitoring for Radio Networks (US12230143B1)
Supporting secure, real-time oversight of critical communication networks
For more information, contact the FAA's Technology Transfer Program at Email NATL-Technology-Transfer@faa.gov
Overview
Teams at the Federal Aviation Administration have developed an innovative system that enables continuous remote monitoring and control of communications equipment that use diverse protocols in an air traffic management or radio network environment. The system eliminates the need for on-site troubleshooting by allowing remote diagnostics, power control, and compatibility management. It is designed to improve safety, reduce downtime, and increase operational efficiency in complex, distributed networks.

The Technology
The system revolves around a Communications Remote Monitoring Panel (CRMP), which interfaces with multiple radios operating under different communication protocols. The CRMP intelligently identifies each radio’s communication specification, such as analog, digital, or proprietary protocols, and dynamically adjusts to ensure the correct protocol is used for proper communication. This capability allows for seamless interaction between otherwise incompatible systems. Once connected, the CRMP transmits queries to assess the status of each connected radio to retrieve metrics including operational status, voltage, power status, and internal temperature. The CRMP can also remotely switch radios on or off, or flag problems for maintenance crews. The system supports real-time data acquisition, cross-protocol translation, and scalable network management. Whether deployed at a single control center or across multiple geographically dispersed facilities, the system improves visibility into the health of communication networks while minimizing the need for on-site technicians. Data trends may also inform replacement equipment acquisitions. Its modular, scalable architecture enables simultaneous monitoring of multiple radios, making it ideal for expanding networks or integrating legacy and next-gen systems.
Benefits
  • Lower Maintenance Costs: Reduces the need for on-site visits through remote control, diagnostics, and power management.
  • Seamless Interoperability: Enables cross-protocol communication, removing compatibility barriers between radios.
  • Proactive Reliability: Provides real-time diagnostics to detect issues early and prevent failures.
  • Maximized Uptime: Increases operational continuity in mission-critical and geographically dispersed networks.
  • Future-Ready Integration: Simplifies the adoption of both legacy and next-generation communication systems.
  • Scalable Design: Expands easily to meet the demands of growing infrastructure and complex networks.

Applications
  • Defense and Public Safety: Remotely manage mission-critical radio systems for military, emergency response, and dispatch networks with minimal on-site presence.
  • Telecommunications and Utilities: Monitor and control large-scale, multi-protocol networks that support telecom providers, smart grids, and other critical infrastructure.
  • Aviation and Transportation: Maintain reliable communications for air traffic control, rail, maritime, and airport operations to reduce downtime and improve safety.
  • Industrial and IoT Networks: Oversee radio-based control systems across manufacturing sites, plants, and supply chains for continuous operations.
  • Research and Development: Test interoperability and evaluate performance of multi-protocol communication systems in experimental or integration environments.
Technology Details

aerospace
US12230143B1
US12230143B1
12230143
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