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.

Driven by two micro motors strategically positioned at the edges of the assembly, the design remains ultra-thin, making it ideal for through-hole configurations in optical applications requiring precise transmission. The innovative symmetry of the flexure plates allows for a range of mechanical displacements, enabling unique combinations that can be tailored to your needs. Whether you require extended strokes, precise X-Y stage movement, an additional Z dimension for an X-Y-Z system, or independent lateral displacements of two objects, our multiaxis micropositioning stage is designed to adapt. Scalability is at the heart of this design. By adjusting a few key dimensions, the multiaxis micropositioning plate can be customized to meet the specific requirements of applications that demand smooth motion, long-lasting durability, and maintenance-free, repeatable positioning.

Digital mission engineering tools connect every stage of the engineering product lifecycle, from initial design to operation. They enable reality-based 3D simulation across multi-domain environments such as air, space, land, and sea by incorporating high-resolution terrain, satellite orbits, RF and radar systems, and sensor environments to accurately replicate real mission conditions. With accurate dynamics-based physical models at the core, these tools provide quantitative analysis of relative positioning between systems, changes in altitude and attitude, line-of-sight availability, and communication link status. Users can predict and evaluate mission elements such as sensor operations, communication links, platform maneuvers, and orbit optimization through scenario-based simulations.

Haigh-Farr has been serving the United States Department of Defense and associated defense contractors for the last 50 years with pride. In fact, the first antenna design ever developed by Haigh-Farr was engineered for a tactical weapon meant to protect the lives of American war fighters; and a variant of that antenna is still being delivered and deployed to this day.

It is capable of carrying heavy payloads, making it suitable for transporting critical supplies and equipment. The system supports swarm operations, enabling coordinated missions with multiple drones. Its robust design allows flexible deployment across diverse military scenarios, enhancing operational efficiency and resilience.

CATIS™ is an ultra-high-resolution, small satellite imaging radar device independently developed by Lumir. It consists of three components: the radar signal transmission/reception device SCEU, an active phased array antenna SATA, and a data downlink antenna KaPA. This X-band imaging radar device is designed for small satellites weighing 150 kg, offering an ultra-high resolution of 0.3 m. It transmits wideband RF signals to the observation area while orbiting at an altitude of 500 km and receives the reflected signals to acquire Earth observation data.

정상적인 신호 수신을 방해하는 재밍 (Jamming)을 극복하고 안정적인 위성신호를 수신하는 안테나를 독자개발하였습니다.

Functional Military Boonie Hat Optimized for Mission Execution The MIF Tactical Boonie Hat is a functional hat designed to ensure efficient mission performance in tactical operational environments. With both breathability and durability, it maintains wearer comfort even in harsh outdoor conditions and supports stable activity during operations.