[Módulos Principales]

Satellite Mesh Resilient Communications

The Satellite Mesh Resilient Communications module provides multi-layer communication resilience for operations in environments where conventional network connectivity is unavailable, unreliable, or contested.

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The Satellite Mesh Resilient Communications module provides multi-layer communication resilience for operations in environments where conventional network connectivity is unavailable, unreliable, or contested.

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Referencia de origen

content/modules/satellite-mesh-resilient-communications.md

Última Actualización

2 abr 2026

Categoría

Módulos Principales

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Overview#

The Satellite Mesh Resilient Communications module provides multi-layer communication resilience for operations in environments where conventional network connectivity is unavailable, unreliable, or contested. The system orchestrates communication across multiple transport layers -- commercial satellite (Starlink), narrowband satellite (Iridium), and tactical mesh radio networks -- with automatic failover between layers based on availability, bandwidth, and latency requirements. Health monitoring with configurable degradation thresholds ensures operators are informed of communication state, while store-and-forward message queuing guarantees message delivery even when all real-time links are temporarily unavailable.

Key Features#

  • Multi-Layer Communication Stack - Three communication layers provide tiered resilience. Starlink provides high-bandwidth, low-latency connectivity as the primary layer. Iridium provides global narrowband coverage as the secondary layer for critical messages when Starlink is unavailable. Tactical mesh radio provides local area connectivity between nearby nodes independent of any satellite infrastructure. The system maintains awareness of all available layers and their current state.

  • Automatic Failover Orchestration - When the active communication layer degrades below configurable thresholds (latency, bandwidth, packet loss), the system automatically promotes the next available layer. Failover is transparent to applications using the communication service -- messages are routed through the best available path without operator intervention. When a preferred layer recovers, the system fails back to restore optimal performance.

  • Health Monitoring with Degradation Thresholds - Each communication layer is continuously monitored for availability, latency, bandwidth, packet loss, and signal quality. Configurable thresholds define three states per layer: healthy, degraded, and unavailable. Dashboard displays show the real-time health of all communication layers, and alerts trigger when layers transition between states.

  • Store-and-Forward Message Queuing - When no real-time communication path is available, outbound messages are queued locally with priority ordering. When connectivity is restored, queued messages are transmitted in priority order. Message delivery confirmation ensures that critical operational messages are not lost during communication blackouts. Queue status is visible to operators, showing pending message count and estimated transmission time.

  • Tactical Edge Deployment - The communication stack is designed for forward-deployed nodes with constrained power, compute, and connectivity. The module runs on edge hardware with minimal resource requirements, managing communication layer selection and message queuing locally without dependence on a central server.

Use Cases#

  • Disconnected Forward Operations - Forward operating bases maintain communication with headquarters through automatic failover between Starlink, Iridium, and mesh radio, with store-and-forward ensuring critical messages are delivered even during total communication loss.
  • Convoy Communications - Moving convoys use mesh radio for vehicle-to-vehicle communication and satellite links for reach-back to headquarters, with automatic failover handling transitions between coverage areas.
  • Maritime Operations - Vessels operating beyond terrestrial network coverage use satellite layers for persistent connectivity, with mesh radio for ship-to-ship coordination in close formation.
  • Disaster Response - When terrestrial infrastructure is destroyed, the multi-layer communication stack provides immediate alternative connectivity for coordination between response teams and command centers.

Integration#

  • CRDT Offline Collaboration - Document synchronisation traffic routes through the satellite mesh communication stack for delivery over the best available path.
  • Tactical Awareness (TAK) - CoT events are relayed through the communication stack, ensuring TAK situational awareness reaches all nodes regardless of connectivity state.
  • Unified Operational Events - Communication layer state transitions (failover, failback, queue flush) generate events in the unified timeline.
  • Drone Operations Management - Drone telemetry relay uses satellite mesh when line-of-sight datalinks are unavailable.
  • System Health Monitoring - Communication layer health feeds into the platform-wide system health dashboard.

GraphQL:

communicationLayers
,
communicationHealth
,
messageQueue
,
meshNodes
(queries);
configureCommunicationLayer
,
setDegradationThresholds
,
flushMessageQueue
,
registerMeshNode
(mutations).

Last Reviewed: 2026-04-02