The device is suitable for anti-drone scenarios in the fields of petroleum and petrochemical, power, public security and law enforcement, as well as military industry. The device has the characteristics of being compact, lightweight, easy to use, and reliable in functional performance, making it easy for users to integrate quickly. The device is based on navigation satellite signal simulation technology, which simulates in orbit navigation satellite signals and broadcasts simulated satellite signals that are consistent with the navigation satellite signals. After receiving the simulated satellite signal sent by the device, the drone uses the simulated satellite signal to locate and output the corresponding position. Multiple deception methods can be implemented for drones, including heading guidance, departure, forced landing, rapid crash, etc.
l Support signal reception and analog transmission functions for commonly used frequency points of the four major global navigation satellite systems;
l It can perform navigation deception on unmanned aerial vehicles that rely on satellite navigation positioning systems, achieving targets such as forced landing, heading guidance, prohibited takeoff, and navigation satellite signal interference;
l Support external commands to control the combination and transmission of any navigation signal;
l Support external commands to set any position coordinates (longitude, latitude, altitude), and can also have built-in fixed coordinates;
l Support external command to set simulation parameters such as signal delay, motion speed, acceleration, etc;
l Support external command settings for preset trajectories such as linear motion and circular motion;
l Support external injection of motion trajectories, the device calculates and outputs corresponding navigation satellite signals based on input information;
l Support real-time ephemeris working mode and permanent ephemeris mode;
l Support setting preset coordinates for automatic power on transmission;
l Support satellite navigation signal suppression interference output;
l Provide secondary development control interfaces for serial ports and network;
|
No |
Satellite system |
Frequency Band |
Center frequency point (MHz) |
Bandwidth (MHz) |
Number of channels |
|
1 |
BDS |
B1L |
1561.98 |
±2.046 |
twelve |
|
2 |
GPS |
L1 C/A |
1575.42 |
±1.023 |
twelve |
|
3 |
GPS |
L2 |
1227.06 |
±1.023 |
twelve |
|
4 |
GPS |
L5 |
1176.45 |
±10.23 |
twelve |
|
5 |
GLONASS |
L1 |
1600.02 |
±12.375 |
twelve |
|
6 |
GALILEO |
E1 |
1575.42 |
±12.276 |
twelve |
Drone spoofing devices are widely used across multiple industries to protect sensitive environments from unauthorized UAV intrusion. By transmitting controlled navigation or communication signals, these systems mislead, redirect, or neutralize drones before they pose a threat, making them a reliable component of modern airspace security.
In the oil and gas industry, spoofing devices help safeguard refineries, pipelines, and offshore platforms, preventing drones from conducting reconnaissance or interfering with operations. Energy and utility facilities, such as power plants and substations, also deploy these systems to block aerial surveillance and protect critical infrastructure.In the field of public safety, law-enforcement agencies use spoofing technology to secure large events, government buildings, prisons, and urban airspace, ensuring that suspicious drones cannot gather intelligence or cause disruptions.
Military and defense units rely on spoofing devices to counter hostile UAVs during training, border protection, and battlefield operations. By misleading enemy drones, they enhance force protection and maintain information security.Additionally, airports, transportation hubs, and industrial complexes benefit from drone spoofing solutions to maintain operational continuity and compliance with aviation regulations.
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