GNSS Interference Detection Product Portfolio

GNSS interference is no longer a narrow technical issue limited to military or laboratory environments. It now affects aviation, maritime operations, telecom synchronization, critical infrastructure, autonomous systems, public safety, and industrial operations. As jamming, spoofing, and unintended RF interference become more frequent, organizations need more than a single detector. They need a complete operational framework for detection, classification, localization, logging, analysis, testing, and response.

GPSPATRON has built exactly that: a GNSS defense ecosystem designed to help operators detect interference in real time, understand what is happening, investigate incidents in depth, protect connected systems, and test resilience under controlled conditions. Our portfolio includes field and fixed detectors, cloud analytics, accessories for deployment and protection, and simulation tools for spoofing and jamming vulnerability testing.

GNSS has become foundational for positioning, navigation, and precise time synchronization. That means interference does not only affect receivers trying to determine location. It also affects systems that depend on precise timing, coordination, control logic, logging, and automation.

GPSPATRON focuses on sectors where GNSS disruption creates operational risk, including aviation, maritime operations, defense, financial services, 5G networks, data centers, power grid systems, RTK infrastructure, railway systems, broadcasting networks, autonomous machines, and drone operations.

The current interference landscape is shaped by a mix of deliberate and accidental sources. Military and geopolitical activity continues to drive large-scale disruption. Maritime vessels use GNSS manipulation to obscure routes or evade tracking. Counter-UAS systems are becoming a major new source of emissions. Low-cost civilian jammers remain widely available. Industrial equipment and poorly controlled RF environments can also create persistent unintended interference.

GPSPATRON provides an integrated platform for:

The ecosystem combines three layers:

1. GNSS interference detectors
   The GP-Probe family includes fixed, rack-mounted, DIN-rail, and portable devices for different deployment models and budgets.
2. Analytical platform
   GP-Cloud receives, processes, classifies, stores, and visualizes GNSS and RF data in real time. It also supports integration with third-party GNSS receivers and external systems via API and event interfaces.
3. Simulation and resilience testing tools
   GP-Simulator and GP-Jammer allow engineers, researchers, and security teams to reproduce spoofing and jamming scenarios in controlled environments for development, validation, and training .

This architecture gives operators both strategic visibility and practical response capability. It can be used as a centralized monitoring system, as a distributed detection network, as a lab testing toolkit, or as a combination of all three.

Real-time GNSS signal quality analysis, interference detection and classification

GP-Cloud is the analytical core of the GPSPATRON ecosystem. It processes data from GP-Probe devices and also supports third-party receiver data via RTCM@NTRIP, NMEA@NTRIP, and Septentrio SBF. It performs real-time anomaly detection, signal quality monitoring, event classification, data logging, notification handling, and post-event investigation support .

Key strengths:

• real-time GNSS anomaly detection,
• spoofing and jamming classification,
• support for multiple GNSS constellations,
• enterprise-grade architecture for large deployments,
• detailed charting and event investigation tools,
• REST API, RabbitMQ, and webhook-style integration options,
• cloud or on-premise deployment models.

GP-Cloud is especially relevant for organizations looking for a centralized GNSS monitoring platform, a GNSS interference dashboard, a spoofing detection platform, or a time synchronization monitoring layer.

Typical use cases:

• monitoring critical infrastructure across many sites,
• supervising GNSS-dependent telecom and timing networks,
• supporting airport or port interference monitoring,
• collecting incident evidence and statistics,
• integrating GNSS event data into security workflows.

High-performance three-channel GNSS interference detector with RF signal analyzer

GP-Probe TGE2 is the flagship detection sensor in the GPSPATRON line. It is designed to detect, classify, and localize sophisticated GNSS spoofing and jamming, with three RF channels enabling spatial signal analysis and stronger detection of coherent spoofing scenarios.

Its core capabilities include:

• three-channel GNSS signal observation,
• spatial signal analysis for advanced spoofing detection,
• built-in 60 MHz real-time RF signal analyzer,
• spectrogram and power spectrum data,
• PPS offset measurement for synchronization monitoring,
• optional TDOA workflows,
• 24/7 critical-infrastructure operation,
• Lua-based custom integration scenarios,
• optional GP-Blocker support for active protection workflows.

This product fits organizations that need the highest level of GNSS interference visibility, especially where spoofing classification quality matters.

Typical use cases

• airports and aviation support systems,
• high-value timing infrastructure,
• national or regional GNSS monitoring networks,
• research-grade interference analysis,
• advanced critical-infrastructure monitoring.

Cost-effective GNSS interference detector for large-scale deployment and timing protection

GP-Probe DIN L1 is a compact, DIN-rail-mounted detector intended for scalable deployments and practical infrastructure integration. It combines GNSS interference detection, PPS accuracy tracking, GNSS signal quality analysis, and logging in a compact format.

Its major advantages are:

• compact form factor for telecom and industrial cabinets,
• GNSS interference and anomaly detection,
• built-in GNSS output control and embedded spoofing blocker,
• PPS input and PPS phase monitoring,
• optional onboard signal processing for standalone operation without GP-Cloud,
• web configuration interface,
• relay and serial integration options,
• Lua scripting for user-defined response scenarios.

DIN L1 is particularly strong when you need many sensors across a distributed network and want a lower-cost unit that still integrates into operational infrastructure.

Typical use cases:

• telecom synchronization monitoring,
• timing server protection,
• distributed infrastructure sensing,
• permanent roadside or perimeter deployments,
• industrial and utility GNSS monitoring.

Portable GNSS jamming detector and logger for field investigations

GP-Probe Nano L1 extends the portfolio into mobile and wearable detection. It is a compact detector/logger for GNSS L1-band jamming identification and field investigation, designed to work standalone or with an Android phone over USB Type-C.

Important features include:

• detector mode for live alerting,
• logger mode for long-term silent recording,
• mobile-app-assisted monitoring and analysis,
• long battery life,
• compact field form factor,
• real-time local notification via LEDs, vibration, and speaker.

Nano is not a replacement for fixed infrastructure sensors. It is the tactical field layer that helps teams verify, investigate, and narrow down interference sources in real environments.

Typical use cases:

• vehicle jammer detection,
• law enforcement and roadside patrol,
• airport perimeter inspections,
• fleet and logistics investigations,
• compliance audits and mobile spectrum monitoring.

Advanced GPS Spoofing Simulation Platform

GP-Simulator 2 is a multi-channel SDR-based GNSS signal simulator designed for controlled testing of navigation and timing systems under realistic and complex interference conditions. It enables engineers to reproduce non-coherent and coherent spoofing scenarios in a laboratory or field environment, providing full control over signal parameters, timing behavior, and constellation configuration.

Its core capabilities include:

• repeatable, lab-grade test scenarios for deterministic GNSS testing,
• coherent spoofing with precise position and time manipulation,
• PPS phase shift and satellite clock error simulation,
• live-sky mode combining simulated signals with real antenna input,
• full control over position, altitude, and dynamic trajectories,
• automatic retrieval of almanac and ephemeris data for realistic conditions,
• compatibility with a wide range of SDR hardware platforms.

GP-Simulator 2 is not a monitoring tool. It is a testing and validation platform used before deployment or during system certification. It allows organizations to move from theoretical assumptions about GNSS resilience to measurable, repeatable results.

Typical use cases:

• testing GNSS receiver resistance to spoofing attacks,
• validation of timing systems under manipulated GNSS signals,
• development and benchmarking of anti-spoofing algorithms,
• certification and compliance testing,
• training of operational teams in controlled environments,
• combined testing with interference sources such as GP-Jammers.

This product is particularly relevant for R&D teams, security laboratories, defense organizations, and infrastructure operators who need to quantify GNSS vulnerability rather than assume it.

Controlled GNSS Jamming Generation for Resilience Testing

GP-Jammer is a controlled GNSS interference generation system designed to reproduce real-world jamming conditions for testing, validation, and training purposes. It provides a deterministic and configurable RF interference source that allows engineers to evaluate how systems behave under degraded or denied GNSS conditions.

Key capabilities include:

• generation of broadband and narrowband GNSS jamming signals,
• adjustable output power for near-field and far-field testing scenarios,
• configurable modulation types reflecting real-world jammer behavior,
• multi-channel architecture for complex interference environments,
• synchronization with GP-Simulator 2 for combined spoofing + jamming tests,
• repeatable and controlled test conditions for engineering validation.

Unlike illegal or uncontrolled jamming devices, GP-Jammer is designed for authorized testing environments, where understanding system behavior under interference is critical.

Typical use cases:

• resilience testing of GNSS receivers and integrated systems,
• validation of anti-jamming technologies and filtering techniques,
• testing telecom and timing infrastructure under GNSS degradation,
• evaluation of autonomous systems under signal loss conditions,
• laboratory and field training for interference response scenarios.

By introducing controlled interference into the testing process, organizations can identify failure points, improve system robustness, and ensure predictable behavior under real-world conditions.

GNSS interference is a complex, multi-layered problem. It cannot be solved with a single device or a “silver bullet” approach. Effective protection requires a combination of detection, analysis, monitoring, and controlled testing—working together as a system.

To better understand how this can be implemented in practice, we recommend downloading our product portfolio and presentation, where all components and approaches are described in detail.

If you prefer a more direct approach, book a meeting with our team. We will quickly review your specific use case, outline potential risks, and recommend a practical solution tailored to your infrastructure.