StratoSentinel protects critical infrastructure across aviation, defense, maritime, and energy sectors with distributed GNSS monitoring and real-time threat intelligence.
Safeguarding airport operations, air traffic management, and emerging aviation technologies from GNSS interference.
Over ninety percent of modern aviation navigation and surveillance workflows rely directly or indirectly on GNSS. This includes RNAV approaches, ADS-B, SBAS, time synchronization, ground vehicle routing, and emerging concepts such as advanced air mobility and unmanned traffic management.
GNSS interference events near airports are increasing globally. Even short disruptions can trigger flight diversions, false surveillance tracks, approach instability, or loss of separation assurance.
Traditional monitoring solutions are fragmented. They often lack real-time alerting, multi-sensor correlation, historical traceability, and operational integration.
StratoNodes are deployed around airports, heliports, and controlled airspace to continuously collect high-fidelity GNSS observables, including signal strength, satellite health, Doppler behavior, timing drift, and constellation consistency.
StratoCentral aggregates this data into a unified operational picture, applying anomaly detection, spatial correlation, and temporal clustering to detect spoofing, jamming, multipath anomalies, and system degradation.
Protecting military operations and national security infrastructure from electronic warfare and GNSS manipulation.
Defense and homeland security operations are increasingly dependent on satellite navigation and precision timing. At the same time, GNSS is one of the first systems targeted in modern electronic warfare.
Spoofing, jamming, and time manipulation are actively used to mislead navigation systems, disrupt coordination, degrade ISR capabilities, and create strategic ambiguity.
Most conventional GNSS receivers are blind to deception. They output a position even when it is wrong.
StratoNodes act as hardened sensing outposts, continuously analyzing the radio frequency environment and GNSS signal structure.
StratoCentral fuses multi-node intelligence to identify coordinated attacks, directional sources, movement patterns, and long-term interference campaigns.
This shifts GNSS from a passive dependency into an actively monitored domain.
Ensuring safe navigation and operational integrity for ports, shipping, and offshore operations.
Global maritime navigation is built on GNSS. Commercial shipping, port operations, offshore construction, dredging, fishing fleets, and autonomous surface vessels all depend on satellite positioning.
Maritime environments are especially vulnerable. GNSS signals are weak, vessels are mobile, and attackers can operate from shore, from other vessels, or from aerial platforms.
Spoofing incidents have already caused vessels to appear on land, inside airports, and in impossible formations.
StratoNodes can be deployed at ports, coastal infrastructure, offshore installations, and aboard monitoring platforms to continuously observe GNSS behavior.
StratoCentral correlates maritime GNSS anomalies with vessel traffic data, spatial clusters, and temporal evolution to identify real interference versus environmental effects.
Protecting power grids, offshore platforms, and energy networks from GNSS timing and positioning manipulation.
Energy infrastructure depends heavily on precise positioning and timing. GNSS is deeply embedded in power grid synchronization, substation automation, offshore drilling, pipeline monitoring, seismic surveys, and autonomous inspection platforms.
Timing manipulation alone can destabilize grid operations, corrupt sensor alignment, and compromise safety systems.
These environments are often remote, difficult to secure physically, and operate with minimal electromagnetic visibility.
StratoNodes are deployed at substations, offshore platforms, refineries, wind farms, and pipeline hubs to independently validate GNSS quality and timing integrity.
StratoCentral continuously audits GNSS-derived time and position against multi-constellation baselines and network behavior.
This creates an independent verification layer between satellite signals and operational systems.