Radar

Following the achievements of previous cycles, iHLS and the Ministry of Defense are opening applications for the seventh cycle of INNOFENSE. The program offers...

Getting personnel into remote or hostile territory normally requires aircraft, helicopters or prepared launch infrastructure. Those options can be noisy, detectable and dependent on...

If your startup applies to one of the following subjects, consider submitting your applications for INNOFENSE’s seventh cycle until October 15th, 2026: Early, remote...

Air-defense radars face an inherent problem: the signals they transmit to find aircraft can also reveal where the radar itself is located. In a...

iHLS and the Ministry of Defense invite you to join the seventh cycle of INNOFENSE and receive a remarkable opportunity to showcase your technology...

Detecting small drones often requires sensors to be positioned close enough to likely flight paths to pick up their signals. On a battlefield, however,...

Following the immense success of the previous cycles and their integration into the defense sector, iHLS and the Ministry of Defense invite you to...

Counter-drone systems are becoming an essential part of military base protection, but knowing whether they will perform as expected during a real attack remains...

Stopping one drone is very different from defending against dozens or hundreds arriving together. A coordinated swarm can approach from several directions, divide into...

Missile-defense systems cannot be validated using simulations alone. Radars and combat-management systems ultimately need to encounter physical targets moving through real airspace, allowing crews...

Gallium nitride has become an important material for high-performance radar, communications and electronic warfare systems because it can handle far more radio-frequency power than...

Modern battlefields are increasingly crowded with radio-frequency signals. Drones, aircraft, ships, communications equipment and electronic warfare systems all transmit across the electromagnetic spectrum, creating...

Air defense systems today must contend with a wide range of fundamentally different threats: ballistic missiles traveling at high speeds and altitudes, fighter aircraft,...

Modern battlefields are saturated with electronic activity. Radars, jammers, drone control stations, communications systems, and other emitters constantly transmit radio-frequency signals that can reveal...

Every new generation of wireless technology places greater demands on the chips inside smartphones, base stations and connected vehicles. As 5G evolves toward 6G,...

Modern air-defense networks increasingly rely on multiple radars spread across different locations. Combining their observations can create a more accurate picture of aircraft, missiles...

Modern fighter pilots are expected to do far more than fly and engage targets. They must process sensor data, manage electronic warfare systems, coordinate...

Modern combat aircraft face an increasingly difficult challenge: operating in airspace saturated with advanced radar systems, long-range missiles, and integrated air defenses. For unmanned...

Modern anti-ship missiles are becoming increasingly difficult to defeat. Equipped with radar, infrared, laser or electro-optical seekers, many can identify and track their targets...

As autonomous technologies continue to mature, air forces are increasingly exploring how much of a combat aircraft's workload can be transferred from the pilot...

Unmanned surface vessels are rapidly evolving from reconnaissance platforms into armed combat systems capable of operating alongside conventional naval forces. As maritime threats become...

The growing use of small drones around military installations has forced defense organizations to rethink how they protect sensitive facilities. Commercially available unmanned aircraft...