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Platform

GÖZCÜ: IoT Early Warning

IoT-Based Autonomous Early Warning

The hard part of early warning is not seeing the hazard; it is not being wrong. GÖZCÜ reads several senses together: one sensor's suspicion does not become an alarm; converging suspicion does.

  • Operational Resilience Platform
  • Network-Independent Communications
  • Real-Time Crisis Management
  • Powered by Türkiye's first underground data centre infrastructure
  • Backed by the Ministry of Industry and Technology

How it works

Five layers. The first three complete in the field, where there is no mobile signal.

  1. Sensing

    Several senses read the same field.

    Temperature, humidity, carbon dioxide and smoke sensors, together with thermal cameras, measure the same area in different ways. A single measurement says nothing on its own; the value is in how they confirm one another.

  2. Edge

    Most readings die in the field.

    There is no high bandwidth in forested terrain; streaming raw footage to a centre would clog the network. Image processing and pre-filtering happen on the edge device the camera is attached to; only an anomaly leaves for the centre.

  3. Link

    There is a link where there is no mobile signal.

    Field units reach the centre over a long-range, low-power radio network: 10 to 15 kilometres of range in forested and rural areas with no mobile coverage. Sleep-wake cycles stretch battery life into years.

  4. Fusion

    One sensor errs; three rarely do.

    The camera's suspicion of smoke, the temperature sensor's rising trend over the last ten minutes and the area's humidity and wind data merge into a single decision. The aim is not speed but eliminating false alarms: the heat of the midday sun and the heat of a fire do not draw the same curve.

  5. Alarm

    The alarm does not end as a notification.

    Once the decision forms, the alarm is raised without waiting for human approval and opens the incident record directly. That record triggers logistics: the route for the responding crew is ready before anyone presses a key.

What the stations say sits on the map.

The sensor monitoring screen separates every station's state into Normal, Warning and Critical; counters on top, distribution on the map. Captured from the demo environment.

Coordination Centre · Sensor Monitoring
Real-time sensor monitoring screen: status counters, sensor markers in Normal, Warning and Critical states on a map of Türkiye, and sensor cards below.

What changes

  • Sensors speak in forests with no mobile signal.

  • The decision is made at the edge; only an anomaly reaches the link.

  • One sensor's suspicion does not become an alarm.

  • The sun's heat and a fire's heat do not draw the same curve.

  • The alarm does not end as a notification; it becomes a route.

What you use in the field

The architecture runs in the field. This is the surface you see.

  • Units in the field

    • Temperature and humidity sensors
    • Carbon dioxide sensors
    • Smoke detectors
    • Thermal cameras
  • Hazards monitored

    • Fire monitoring
    • Earthquake monitoring
    • Flood and rainfall monitoring
    • Landslide risk
  • Alerting and record

    • Multimodal sensor fusion
    • Autonomous alarm generation
    • Incident record triggered by sensor data
    • Real-time data stream

This capability leads in:E-Afet CityE-Afet Defence

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