AMD builds on its 30+ years of continuous focus and heritage in Aerospace and Defense, extending the XQ defense-grade portfolio with AMD Versal XQ Series SoCs. Versal adaptive SoCs combine adaptable processing of the programmable logic and acceleration engines with leading-edge memory and interfacing technologies to deliver customized, powerful heterogeneous acceleration for any application.

[LEO GNSS-R] Satellite : LEO RF Characteristics : GPS L1/L5, Galileo E1/E5a(option) Accuracy : Position ≤ 10m(3DRMS), Velocity : ≤ 1m/s Raw Data Accuracy : Pseudo-Range : 1m(RMS) Carrier-Phase : 10mm(RMS) Data Output Rate : 1Hz 1PPS Accuracy : Sync to GPS Time Data < 1us (1PPS Accuracy < 1.5us) TTFF : Cold Start ≤ 20min / Warm Start ≤ 10min Dara Interface : MIL-STD-1553B, RS-422(Data Interface) [GEO GNSS-R] Satellite : GEO RF Characteristics : GPS L1/L2C/L5, Galileo E1 Accuracy : Position :: ≤ 30m(3DRMS), Velocity : ≤ 1m/s Raw Data Accuracy : Pseudo-Range : 1m(RMS) Carrier-Phase : 10mm(RMS) Data Output Rate : 1Hz 1PPS Accuracy : 2us(RMS)/Sync to GPS Time Data TTFF : Cold Start ≤ 45min / Warm Start ≤ 20min Dara Interface : MIL-STD-1553B EEE Parts : ITAR Free Parts

Based on the KN series MIL-DTL-55302 compliant connectors an ESA version of the KNB/KNC connectors has been created, which also offers signal contacts designed for demanding defense, commercial aerospace and space applications. They also are available in the 2 and 3 row series and offer flexibility not available with other interconnects.

FRAZIER AVIATION develops customized short- and long-term program packages that fit our Customers individual sustainment requirements and budget limitations. We are committed to crafting tailored spares and repair solutions that meet the distinct demands of each client. Military Aviation Program Sustainment (MAPS) * Tailored Customer agreements * Consisting of high turn structures * Manufactured at economies of scale * Cost effective, value added * Just-In-Time (JIT) deliveries Frazier Aviation Sustaining the Warfighter

The IntuVue RDR-7000 is fully automatic and does'nt require active pilot adjustments of tilt and/or gain for operation. Reducing workload, allows pilots to focus on flying the most comfortable and safest route through weather. Engineered to provide far superior reliability, accuracy and durability than legacy magnetron-based radar systems, the RDR-7000 offers customers the flexibility to remotely enable advanced software features to provide them the clearest view of weather conditions around the routes they’re accustomed to flying. Key Honeywell Advantages: Next generation -fully automated, higher resolution weather radar system with airborne ground/sea mapping system Reliable and efficient - solid-state transmitters utilizing pulse compression provide reduced weight and power consumption, advanced coherent processing, and increased reliability Compact and easy to install - RDR-7000 IntuVue radar systems technology integrated into a small, lightweight package Available software upgrades - advanced features can be added at any time, including turbulence detection, advanced mapping, target detection and additional hazard features (lightning and hail detection), and forward looking (predictive) windshear Honeywell's RDR 7000 Radar helps in operational costs savings by reducing the delays & downtime caused due to hailstorm, weather incidents and windshears while optimizing routes to reduce diversions and turnbacks.

Long-Endurance VTOL Aircraft with an Aerodynamic Design for Maximized Energy Efficiency. Equipped with Communication Systems and EO/IR Surveillance Cameras, it can fly up to 3 Hours of Mission Operation. Comes with a EO/IR Camera as Standard, and can be customized to carry payloads such as a Surveying LiDAR or Camera (≤1kg) based on customer requirements. Application : Take off/Landing on Moving Vessels, Aerial Surveying, Reconnaissance, Payload Drop (Grenade, Cargo, etc.)

"It is a product lineup that is proven in global markets and has world-class competitiveness. And it is being exported to more than 20 countries around the world."

Our LiDAR uses a custom-designed laser that separates 1064 nm and 532 nm wavelengths from a single source, with two dedicated receivers capturing each set of data independently. Inside the system, the linear laser beam is refracted at a 10-degree angle through a prism to enable circular scanning. An RF module is also integrated for real-time equipment status monitoring. From circuit board design to component selection, every part of this system was developed in-house by multiple institutions. As a result, we have successfully eliminated reliance on foreign technology.