Industrial RTLS & Lone Worker Tracking
Secure your workforce in harsh environments. We architect high-precision RTLS using UWB, BLE beacons, and LoRaWAN gateways with wearable panic buttons and real-time dashboard monitoring.
RTLS Architectures We Deploy
Multi-protocol indoor and outdoor positioning topologies tailored to facility metal density, battery life, and accuracy SLAs.
Ultra-Wideband (UWB)
Centimeter-level tracking accuracy designed for high-risk zones, AGV collision avoidance, and precise asset localization.
High Precision TopologyBLE Beacons
Cost-effective room-level and zone tracking with multi-year battery life, suitable for sprawling manufacturing facilities.
Low Power Zone TrackingLoRaWAN Gateways
Long-range, low-bandwidth data transmission engineered for outdoor worker tracking in mining or oil & gas fields.
Extended Range NetworkingSafety Wearables
Rugged ID badges and wristbands featuring SOS panic buttons and environmental sensors for immediate distress signaling.
Worker-Centric HardwareReal-Time Dashboards & Fall Detection
We build responsive industrial IoT infrastructures. Our monitoring platforms process MQTT telemetry streams in real time, ensuring supervisors have complete visibility of lone workers in hazardous zones, including automated man-down alerts.
Accelerometer Fall Detection
Hardware logic detects sudden impacts and lack of motion, automatically generating critical alerts without manual intervention.
High-Throughput MQTT Streams
Scalable cloud and on-premise message brokers handle thousands of simultaneous IoT connections with sub-second dashboard updates.
Comparing RTLS Technologies for Industrial Safety
Evaluating Ultra-Wideband (UWB), BLE Angle of Arrival (AoA), Industrial Wi-Fi, and GNSS/GPS across harsh industrial facilities.
| Capability & Metric | Ultra-Wideband (UWB) | BLE AoA (Angle of Arrival) | Industrial Wi-Fi (RSSI) | GNSS / GPS (Outdoor) |
|---|---|---|---|---|
| Positioning Accuracy | 10cm - 30cm (Precision 3D) | 0.5m - 1.0m (Sub-meter) | 3m - 10m (Zone-level only) | 2.5m - 5m (Degrades near tall structures) |
| Multipath Metal Immunity | Immune (Nanosecond RF pulse time-of-flight) | Moderate (Phase comparison algorithms) | Poor (Severe reflection & fading) | Zero indoors (Complete signal attenuation) |
| Wearable Tag Battery Life | 6 months - 2 years (Dynamic accelerometer sleeping) | 3 - 5 years (Ultra-low BLE TX) | 1 - 3 months (Power-hungry beaconing) | 1 - 3 days (Active satellite receiver draw) |
| SOS & Man-Down Latency | Sub-100ms immediate alert propagation | Sub-500ms real-time triangulation | 1 - 5 seconds scan interval polling | 2 - 10 seconds cellular SMS/data uplink |
| Infrastructure Density | PoE Anchors spaced every 20-30m | Ceiling locators spaced every 10-15m | Leverages existing Wi-Fi AP layout | Zero indoor coverage (Requires satellite LOS) |
| Optimal Application | Heavy manufacturing, AGV collision avoidance, ATEX zones | Logistics warehouses, tool tracking, PPE compliance | Coarse presence detection, general enterprise facilities | Open-pit mining, rail yards, outdoor tank storage |
Industrial RTLS FAQs
Technical insights on lone worker safety architectures, UWB versus BLE accuracy, and fall detection telemetry.
Planning a facility RTLS deployment?
Speak with an IoT & RTLS architect to evaluate anchor placement and gateway topology for your site.
Book a 20-minute scoping callTalk Directly to an IoT & RTLS Architect
Book a zero-pitch, 20-minute engineering session to evaluate your facility layout, compare UWB vs BLE accuracy, select appropriate IoT gateways, or plan a pilot deployment for lone worker safety.
Book a 20-Min Technical Strategy Call
Discuss your architecture, feasibility, hardware sizing, or custom software requirements directly with a senior engineer.
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