Anti-drone systems are deployed for detection, tracking, identification and neutralization of unauthorized drones threatening strategic, defence and critical infrastructure assets. The operational performance of anti-drone systems is generally optimized for standard environmental conditions; however, their behavior changes significantly in high altitude regions. High altitude environments are characterized by extreme cold temperatures, low atmospheric pressure, reduced air density, dust, snow, a
The above statement envisages the to build a high-altitude capable antidrone system with robust environmental tolerance and sustained operational effectiveness under extreme climatic and atmospheric conditions.
Anti-drone systems are deployed for detection, tracking, identification and neutralization of unauthorized drones threatening strategic, defence and critical infrastructure assets High altitude environments are characterized by extreme cold temperatures, low atmospheric pressure, reduced air density, dust, snow, a
The above statement envisages the to build a high-altitude capable antidrone system with robust environmental tolerance and sustained operational effectiveness under extreme climatic and atmospheric conditions. The system shall assess the effect of low temperature, low pressure, dust ingress, high wind loads, thermal cycling and reduced atmospheric density on overall system performance and develop suitable mitigation methodologies. • A portable or deployable anti-drone system architecture with optimized mechanical, electrical, RF and electro-optical subsystems shall be developed. The system shall incorporate: • Robust design methodologies for maintaining detection, tracking and engagement accuracy at high altitude. • Suitable component selection and qualification for reliable operati