AI autonomous mission-performing drone - Drone performing autonomous defense/interception missions using Deep Reinforcement Learning technology - Drone platform for development (can be provided separately) - Drone H/W specifications

The Improved Fire Control System (IFCS) PNU / Universal Fire Control System (UFCS) UPNU family represents a true state-of-the-art system approach. Its design features permit ready adaptation and/or optimization to any current or future weapon system or sensor requiring precision pointing and positioning. The PNU / UPNU and its variants point the way for the future direction of the land navigation systems. Utilizing advanced sensors, electronics, software and aiding (GPS and odometer), the PNU / UPNU family delivers precisely what the Army of tomorrow needs — a system designed to remain operationally effective and affordable to support well into the future. Features High-performance RLG-34 ring laser gyros Common architecture and components (Paladin, PIM, Firefinder, IPADS) Embedded 12-channel Selective Availability Anti-Spoofing Module (SAASM) Impervious to jamming (inertial mode) Resistant to jamming (GPS-aided mode) Combat-proven Embedded Built-In Test (BIT) High reliability MTBF, low mean time to repair (MTTR) No periodic calibration required Applications Multiple Launch Rocket System (MLRS) High-Mobility Artillery Rocket System (HIMARS) Pointing and position location

THE FUTURE OF FIGHTER JETS

With a 99% win-rate in simulated F-16 dogfights versus active-duty Air Force and Navy fighter pilots, Hivemind is learning to execute a variety of missions from Beyond Visual Range strike to suppression of enemy air defense. The future of air dominance will be powered and flown by Hivemind.

It Starts With The F-16

Hivemind will deploy as a digital co-pilot on a U.S. Air Force F-16, with the goal of rapidly scaling across next-generation aircraft, F-22s, F-18s, and other fighter jets. Hivemind will make legacy fighters relevant for decades to come and will power the next generation of military aircraft.

The Sentry Mesh 6161 is a Software Defined Radio hosting our highly robust MANET waveforms that have been proven in applications from Public Safety to Unmanned Systems and Covert Operations. The MeshUltraTM waveform optimises the use of available channel bandwidth through a token passing technology, which avoids collisions and provides a bound, predictable data packet latency. Wider bandwidth, together with superior RF performance and optional Interference Avoidance System (IAS), maximises communications effectiveness in the presence of interference. The standardised design of the 6161 ensures that it can be integrated with a large range of accessory devices such as audio, data, power solutions, and antennas to address current and future program needs.

Whether satellites, spacecraft or space debris – GESTRA, the "German Experimental Surveillance and Tracking Radar", is a state-of-the-art radar system for observing and tracking objects in space. It operates in the microwave range and explores the Low Earth Orbit of 300 to 3,000 kilometres, i.e. the range in which most satellites and the International Space Station (ISS) are located. This makes it possible, for example, to protect space systems or the ISS from a collision with debris particles by providing a timely warning. Millions of tiny particles orbit the earth and, at a speed of around 28,000 km/h, pose a threat to active space technologies. GESTRA was developed and built by the Fraunhofer Institute for High Frequency Physics and Radar Techniques FHR on behalf of the German Space Agency at DLR.

HyperStac RX Series is a Z axis interconnection solution designed for all types of micro-electronics applications requiring reliable and compact packaging solutions. The Hyperstac RX Series meets the needs of the Defence, Avionics and Space electronics applications.

The world’s first satellite dedicated to blue carbon monitoring, launched in January 2025. Equipped with an AI-powered onboard processor, BlueBON processes electro-optical data directly in orbit, reducing latency and eliminating the need for energy-intensive ground-based processing. This establishes a new model for sustainable, application-driven EO missions.

i3system’s line scanning X-ray detector platform, XID-C15DP/XID-C24DC, is a high performance and cost effective solution for dental panoramic, cephalometric applications. i3system’s direct type sensor ensures the most sharp images among the current products in the market. XID series is designed for compact size and easy installation. High DQE(Direct Quant㎛ Efficiency) enables high performance at lower dose of X-ray. Introduction Indirect type X-ray detector uses the scintillator and the photo-diode(CCD or CMOS sensor) for conversion of the X-ray into the light and for taking images espectively. But the light scatters and goes extinct during it passes through the scintillator and reaches to the CCD or CMOS sensor. As a result, it is inevitable to get blurred image. In the mean time, XID C15DP, direct type detector, converts X-rays into electronic signals directly without conversion process of light. Because X-ray is not converted into light, it provides much sharper images than indirect type detector. XID C15DP is designed to compact for easy installation. It provides Gigabit Ethernet port on the detector for easy configuration. Instead of Gigabit Ethernet, camera link or optical interface can be provided according to requirements of users.