To guarantee maximum safety and reliability, our DA 30 features a brushless motor and a contactless wear-free position sensor. This means maximum service life with the greatest‐possible power delivery and its design prevents electromagnetic emissions (EMI) caused by brush sparking. The housing made of saltwater‐resistant aluminum is HART‐coat treated, meets the IP‐67 standard for water and dust sealing and provides an integrated Sub‐D connector (MIL spec. circular connector or cable gland on request). Brackets integrated in the housing for horizontal and vertical assembly. 8‐fold, ball‐bearing supported, steel gear train, drive shaft with ANSI multi‐tooth. The DA 30 series can be equipped with a standard PWM input (Pulse Width Modulation) that has two different interfaces: a differential, galvanic isolated interface (Opto‐Coupler) and a single‐ended interface with CMOS levels that is also used to program the servo parameters. It includes analog position feedback to detect the drive shaft position. A differential RS‐422 PWM interface can be chosen instead of the opto‐coupled interface. The DA 30 with digital serial command interface (RS‐485) receives its commands via a CRC secured protocol. It can return not only the shaft position in digital format, but also several diagnostic data such as the level of the supply voltage, current consumption and the temperature of the motor and electronics in digital form (optionally also the humidity within the actuator case). These kind of diagnostic capabilities help to determine the health state of the actuators before, during and after deployment.

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.

Solution Overview KWM-Ocelot (AI Electromagnetic Spectrum Reconnaissance System) is a self-developed solution that measures field strength and clearness of 5G/4G base station signals and automatically analyzes abnormal waveforms based on time-series data. Main Features Real-time wideband frequency scanning using an RF detector mounted on unmanned complex systems AI-based signal characteristics and transmitter location analysis Real-time transmission and visualization of analysis data to ground control stations (GCS) via data link Identification of locations such as enemy drone and equipment operation areas, and command posts Effective tracking and jamming of enemy communications Key Advantages Automated signal classification and pattern learning based on AI Real-time visualization of battlefield electromagnetic spectrum distribution Effective signal detection, analysis, and tracking in various military environments Fully in-house developed, enabling rapid technological application and operational optimization Applied Cases Winner of the Grand Prize (Army Chief of Staff Award) at the 2025 Army Artificial Intelligence Idea Contest Real-time reconnaissance of battlefield electromagnetic environments and enemy communication tracking in military operations

Only SAR (synthetic aperture radar) satellites can collect images day and night and in any weather. Only ICEYE’s constellation of small and agile SAR satellites is able to revisit the same location in space daily and even sub-daily, enabling a level of change detection that’s never been possible before.

The intelligent operations you didn't know existed - and didn't know you needed. Let data be your co-pilot with Honeywell Forge industrial-grade software.Fol...

We have been designing and supplying cryogenic turbines for helium liquefaction since the late 1980s. Today we are a major supplier of turboexpanders, compressors and pumps to the world's leading manufacturers of cryogenic systems. Our cryogenic product line utilizes the unique PBS technology and know-how of dynamic gas bearings. We supply to prestigious research institutes such as CERN, Max Planck Institute or Rosendorf Research Centre. With the new HEXT/CTE300 turboexpander we will be ready for the hydrogen ecosystem

Main Features of CLS-30T3 Camera Link Compatibility: Supports all Camera Link types (Area Scan / Line Scan). Video Distribution: 1:3 distribution capability supporting Base, Medium, and Full configurations. Power over Camera Link (PoCL): Performs PoCL Bypass functionality. Pixel Frequency: Supports a pixel frequency range of 20 MHz to 85 MHz. Transmission Quality: Ensures lossless video signal transmission. Power Connector: Equipped with a lockable DC power jack (Molex connector). Interface: Supports MDR-26 type connectors. Control Signal Support: Supports all standard RS-232 communication speeds.

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.