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.

The single-board computer developed by Coats Technology is a core component that implements the performance of weapon systems and satisfies high reliability under environmental conditions such as temperature, vibration, shock, and EMI. It also performs data processing, integration and control of various onboard equipment through data buses, and communication functions to automate command and control, communication, computing, and information elements.

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.

DI Optical’s new EG1 prism gunsight provides a parallax free reticle for increased accuracy and rapid target acquisition. The shaded 30mm lens provides a wide, crystal clear field of view. CNC machined from a solid billet of aircraft quality 6061-T6 aluminum, the compact EG1 is unsurpassed in ruggedness and reliability. The rotary brightness switch can be conveniently operated with a gloved hand.

The AI Inspection Rover is capable of autonomous driving indoors and outdoors, obstacle avoidance, high-resolution image acquisition, aircraft underbody inspection, and platooning. Its low-height design allows it to pass under the aircraft, and with its zero-turn function, it can execute missions more efficiently. Additionally, it can drive slopes of up to 10° and overcome bumps of up to 30mm.

# Key Features - Map Generation and No-Drive Zone Setting in Airports > Airport map/sensor fusion-based localization function > Function for defining main movement and standby areas > No-drive zone setting - Optimal Path Autonomous Driving Function > Destination-based optimal path navigation > Speed limit settings by path and area > Real-time location monitoring > Obstacle detection and immediate response > Driving on diverse road surfaces within designated areas - Real-Time Bird Detection and Bird Position/Direction Prediction > Real-time bird detection > Support for approximate bird position/direction prediction based on object detection algorithms > Updating of approximate bird position/direction prediction based on flock detection - Effective Bird Deterrence Reflecting Bird Characteristics > Playback of diverse (randomized) acoustic patterns - Real-Time Communication with Operator and Manual Control Function > Monitoring console (PC) provides real-time bird detection status and history > Display of approximate bird position/direction predictions on a map > Real-time video data sharing > Remote manual control - Smart Charging Function > Automatic return and charging when mission is complete or battery is low

Between Earth and space: stratosphere-compatible, solar-powered high-altitude aircraft, known as HAPs (High Altitude Platforms), offer a sustainable alternative to satellites for Earth observation and communication. They are reusable, cost-effective and flexible in use. The DLR joint project HAP-alpha is developing such a technology demonstrator and is endeavoring to establish a complete system capable of permanent operation. The aim is for DLR to build up comprehensive expertise for the development of high-performance, high-flying solar aircraft and to play an active role in shaping the legal framework. In summer 2025, the HAP-alpha successfully passed a ground vibration test.

It is an UAV recovery system that lands a fixed-wing UAV even in mountainous terrain where there is no sufficient runway for landing. The UAV is damping through a net mounted on the vehicle and lands on an air-cushion mat. It has the advantage of being easy to deploy in places where vehicles can enter and exit. But the type of the aircraft capable of stable landing is limited.