GP-Jammer

Application:
GNSS receivers for navigation, timing, and synchronization must withstand intentional and accidental interference. GP-Jammer allows controlled GNSS jamming simulation for GPS, Galileo, GLONASS, and BeiDou.

❓ How GP-Jammer helps

• Generates wideband and narrowband jamming in L1/L2/L5.
• Supports chirp, swept noise, multi-tone, CW, and signal-matched interference.
• Multi-channel mode allows simultaneous jamming of multiple constellations.
• Creates realistic hybrid environments when combined with GP-Simulator 2.

✅ What Problems It Solves

• Evaluates susceptibility to GNSS outages.
• Tests fallback to inertial navigation or timing holdover.
• Supports R&D of anti-jamming and anti-spoofing algorithms.

📏 What You Can Measure

• Loss-of-lock behavior.
• Position, velocity, and timing degradation.
• Satellite reacquisition time.
• PPS stability under attack.
• Behavior under sweeping, pulsed, signal matched interference.

👥 Who Should Use It

• GNSS receiver manufacturers
• Timing server integrators
• Telecom, energy, aviation, and transport operators
• Researchers developing resilient PNT systems

Application:
Modern drones rely on several wireless channels simultaneously: GNSS, telemetry, control links, and video transmission. GP-Jammer allows simulation of multi-vector interference to understand how UAVs behave under complex RF threats.

❓ How GP-Jammer helps

• Multi-channel jamming: GNSS + RC link + telemetry + video (2.4/5.8 GHz).
• Reproduces realistic UAV denial-of-navigation and denial-of-control conditions.
• Allows testing of autonomous fallback logic: RTH, land, hover, emergency mode.
• Validates the resilience of anti-jamming and anti-spoofing systems.

✅ What Problems It Solves

• Helps determine which channels fail first and how the drone recovers.
• Identifies vulnerabilities in FPV, Wi-Fi-based control, or proprietary telemetry links.
• Tests robustness of GNSS-dependent autopilot logic.
• Supports certification and compliance for UAVs used in industrial and governmental sectors.

📏 What You Can Measure

• Loss of video link, telemetry, or RC control.
• GNSS lock degradation and positional drift.
• Autonomous mode transitions and timing.
• Stability of flight under communication loss.
• Fail-safe behavior under multi-band jamming.

👥 Who Should Use It

• Drone manufacturers
• Counter-UAS developers
• Industrial operators using UAVs (oil & gas, energy, inspection)
• Research labs and UAV certification authorities

Application:
Mobile operators, equipment vendors, and cybersecurity teams need to understand how LTE and 5G systems behave when exposed to intentional or unintentional RF interference. GP-Jammer enables controlled simulation of uplink/downlink jamming across relevant cellular bands.

❓ How GP-Jammer helps

• Generates wideband and narrowband interference across cellular frequency ranges.
• Reproduces realistic jammer waveforms: CW, chirp, sweeping noise, multi-tone, burst patterns.
• Simulates degradation of uplink, downlink, or both simultaneously.
• Allows multi-channel scenarios: different waveforms on multiple cellular bands.
• Enables stress-testing of base station algorithms and UE fallback logic.

✅ What Problems It Solves

• Identifies vulnerability of 4G/5G coverage to interference from nearby RF sources.
• Tests resilience of handover, timing sync, and RRC state transitions.
• Evaluates UE behavior under partial-band and full-band blocking.
• Helps optimize anti-jamming strategies for private and public networks.

📏 What You Can Measure

• Throughput degradation (DL/UL).
• RSRP, RSRQ, SINR behavior under interference.
• Cell re-selection and fallback to 3G/2G.
• Loss-of-service boundaries and recovery time.
• Quality-of-Service (VoLTE, VoNR) under jamming.

👥 Who Should Use It

• Mobile operators & telecom labs
• Base station/RAN equipment vendors
• Cybersecurity & regulatory agencies
• Developers of mission-critical LTE/5G systems

Application:
Wi-Fi routers, access points, Bluetooth IoT devices, and industrial wireless links must function reliably in high-noise environments. GP-Jammer lets engineers emulate real interference to verify system robustness.

❓ How GP-Jammer helps

• Generates interference across 2.4, 5, and 6 GHz ISM bands.
• Simulates congested environments: noise, multi-tone, swept signals.
• Tests coexistence and resilience of Wi-Fi/Bluetooth protocols.
• Multi-channel mode allows simultaneous simulation in several ISM bands.

✅ What Problems It Solves

• Identifies sensitivity to cross-technology interference (BLE → Wi-Fi, Wi-Fi → ZigBee).
• Validates robustness of industrial wireless networks.
• Helps optimize antenna design and filtering.

📏 What You Can Measure

• Packet loss, throughput, and latency under jamming.
• Channel hopping efficiency and recovery.
• RSSI and SNR behavior.
• Coexistence algorithms performance.

👥 Who Should Use It

• Wi-Fi/Bluetooth device manufacturers
• IoT developers
• Industrial wireless & automation system engineers
• EMC/QA labs