I. System Overview
(1) Core Design and Appearance Features
Visually, the Tripode MBP resembles a sturdy delivery scooter fitted with a tripod, with no obvious offensive features such as missiles or turrets. Its low‑profile exterior allows it to blend naturally into urban traffic environments without attracting unwanted attention. The system integrates military‑grade sensors and electronic warfare equipment onto a compact platform, with all functions optimized for the single mission of countering low‑cost, improvised drones. It maintains strong stealth while delivering reliable operational effectiveness, successfully balancing security requirements and tactical surprise in urban settings.
(2) Technical Parameters and Modular Composition
The Tripode MBP uses a five‑module integrated architecture. Each module can operate independently or in a coordinated network to form a complete operational closed loop: detection‑analysis‑jamming‑identification. Its functions and parameters are as follows:
• Radar module: Detects moving targets including drones, light aircraft, helicopters, vessels, and vehicles, serving as the system’s initial sensor for aerial threats.
• Spectrum analysis module: Scans radio signals across the 2.3 GHz to 5.9 GHz frequency band, accurately identifying drone control links to provide targeting data for subsequent jamming.
• Electromagnetic jamming module: Transmits high‑power or tuned signals to disrupt communications between drones and their operators, forcing them to land or return to base.
• Electro‑optical camera module: Supports continuous day and night surveillance, with facial recognition and crowd monitoring capabilities for visual target confirmation.
• Thermal imaging module: Detects aerial or concealed targets via infrared signals, enhancing situational awareness at night, in fog, and under other low‑visibility conditions.
The entire system can be remotely controlled via a 5G connection. In addition to the scooter version, the modular system can also be adapted for all‑terrain vehicles and 4×4 removable kits. It can be deployed quickly by a small team without heavy lifting equipment or escort convoys.
(3) Tactical Advantages and Scenario Adaptability
• Mobility and stealth: The scooter‑and‑tripod configuration allows the system to access narrow alleys, steep slopes, historic city centers, coastal cliffs, and other complex environments inaccessible to large anti‑drone equipment. Once on site, operators can rapidly deploy the tripod and raise sensors to start airspace scanning. Its civilian appearance draws almost no attention in urban areas, avoiding the exposure of defensive positions.
• Flexible deployment and rapid response: The system supports fast position shifts in response to dynamic threats and can track suspected operators across areas. For major events, border patrols, and critical infrastructure protection, multiple units can be dispersed to replace single, highly visible defense nodes, improving overall coverage and survivability.
• Modular customization: Developed based on battlefield feedback, the system supports mission‑specific configurations:
◦ Silent surveillance mode: Only cameras are active, with no active electromagnetic emissions.
◦ Anti‑drone alert mode: Radar and spectrum analysis systems run continuously.
◦ Active interception mode: Integrated jamming, radar tracking, and thermal imaging.
◦ Event security mode: Focused on electro‑optical monitoring and crowd situational awareness.
The system can be flexibly configured for the military, law enforcement, customs, critical facility security, and other scenarios, enabling multi‑purpose adaptation.
II. Conclusion
The emergence of the Tripode MBP anti‑drone scooter represents not only an innovative breakthrough for France in the anti‑drone sector but also a global trend in low‑altitude security defense: combining civilian vehicles with intelligent electronic warfare technology to create lightweight, stealthy, and modular mobile defense units.
This equipment fills gaps in traditional air defense systems when countering low‑altitude small drones, effectively meeting diverse needs in urban security, border control, and forward tactical deployment. While it still faces dual challenges in responding to adversarial technological upgrades and civilian privacy protection, integration of such equipment into layered defense systems is gradually balancing the confrontation between low‑cost drone attackers and defense forces.
As a major development direction in low‑altitude security, it also provides a new “small but sophisticated” approach for anti‑drone equipment development worldwide.
Post time:Sep-25-2020
