Built for the Environments That Cannot Wait. XIcore platforms operate in forward positions, denied environments, and complex terrain — delivering Extended Intelligence where conventional systems cannot be deployed, cannot survive, or cannot keep pace.
Persistent battlespace awareness, counter-UAS, force protection, CBRN early warning.
Distributed unattended ground sensor networks for long-duration area awareness.
Perimeter monitoring for energy, utilities, communications, and data facilities.
Wide-area sensor networks for border and maritime surveillance.
Distributed sensing networks enabling rapid area coverage in complex terrain.
Deployable CBRN hazard mapping and post-event environmental intelligence.
Continuous multi-sensor monitoring of hazardous process environments.
Venue-scale CBRN and threat monitoring for mass-gathering security.
Military operations demand continuous situational awareness across wide areas, in environments where GPS is jammed, communications are degraded, and the threat picture includes airborne UAS, dismounted personnel, vehicle movement, artillery, and chemical hazards simultaneously.
XIcore payloads deploy flexible multi-transport connections to stay online under severe spectral congestion, converting hundreds of scattered data triggers into real-time threat maps.
24/7 coverage across contested sectors.
Tracks personnel, vehicles, drone systems, and gas triggers concurrently.
Cross-fuses acoustics arrays with passive RF to isolate flight nodes.
Seismic time-difference-of-arrival isolates blast targets.
Integrated tactical chemical warning flags.
Weeks of autonomous solar-cell operation.
Reconnaissance demands persistent, wide-area sensing over extended time horizons, with minimal operator workload and minimal logistical footprint. XIcore’s distributed sensor architecture is purpose-built for this mission: rapidly deployed, self-sustaining, and autonomously intelligent.
The XIcore Engine reduces the cognitive burden on reconnaissance personnel by delivering confidence-scored, fused threat tracks rather than raw sensor feeds. Operators focus on decisions, movement, communication, escalation, not data management.
Nodes operate without human configuration for months, caching threat pathways.
Completely passive operation emits no detectable RF energy, remaining fully hidden.
High-precision crystal oscillators transfer timing across the grid without GPS requirements.
The most demanding test of a distributed sensing platform is not a battlefield, it is a venue hosting 80,000 people with saturated RF spectrum, dense crowds masking chemical and acoustic baselines, and zero tolerance for false positives that trigger mass panic.
The most demanding test of a distributed sensing platform is not a battlefield, it is a venue hosting 80,000 people with saturated RF spectrum, dense crowds masking chemical and acoustic baselines, and zero tolerance for false positives that trigger mass panic.
US20 nodes were deployed at World Cup venues for concurrent counter-UAS and CBRN monitoring. The C-UAS capability fused visual detection with passive RF interception to detect, classify, and geolocate unauthorized UAS. CBRN sensors monitored chemical threats across venue perimeters, validating contested-RF resilience with tens of thousands of spectator devices active simultaneously.
Scentroid monitored CBRNE threats inside Canadian World Cup stadiums, with sensor nodes positioned at each corner of the venue interior. The multi-node configuration enabled real-time triangulation of chemical threat sources, providing early detection and localization before concentrations reached hazardous levels.
In both deployments, XIcore Engine maintained full operational capability in contested RF environments where conventional IoT and cellular-dependent systems experienced significant degradation, validating the architecture’s resilience under real-world spectrum saturation.
XIcore’s distributed sensing changes the economics of perimeter protection. A network of nodes provides overlapping acoustic, RF, seismic, and CBRN coverage across an entire facility, detecting aerial intrusion, ground breach, electromagnetic reconnaissance, and chemical hazard simultaneously.
Acoustic, seismic, and RF fusion detects physical intrusion and the reconnaissance that precedes it.
Persistent RF and acoustic coverage detects unauthorized drone activity with operator geolocation
CBRN sensing provides early warning of industrial accident, environmental release, or deliberate attack with 3D source mapping.
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PROUDLY CANADIAN · DUAL-USE TECHNOLOGY