A high-performance AI onboard processor built on NVIDIA’s Jetson platform, capable of trillions of operations per second. Demonstrated in orbit on SpaceX’s Transporter-11 mission, TetraPLEX minimizes downlink demands by performing real-time in-space analysis, cutting both costs and data delivery times while improving operational resilience.

The First & Only Autonomous AI Pilot Deployed Since 2018

Similar to a human pilot, Hivemind reads and reacts to the battlefield, and does not require GPS, waypoints, or comms to make decisions. Hivemind enables intelligent teams to perform missions ranging from room clearance with Novas, penetrating air defense systems with V-BATs, to dogfighting F-16s.

Intelligent Teaming

Shield AI’s synthetic environments combined with human-machine tactics and behaviors. Testing and learning in real physics simulations reduces engineering cycle times and enables rapid real-world deployment. Welcome to the defense metaverse.

Edge Autonomy

The aircraft uses sensors to create a map or world-view, the computer then tells the aircraft or autopilot where to go and what to do to execute its mission. No GPS, no waypoints, and no comms are needed for aircraft to accomplish their missions.

The semi-automatic ViscoTec mix-on-demand station is already in successful use as a mobile system. For reliable mixing and dosing of two-component materials, in situ. Two-component materials are commonly processed using premix cartridges, hardener rod cartridges or by mixing two components by hand. The disadvantages are obvious: The risk of human error, enormous material waste and high production costs offer every reason for taking the automated route. With ViscoTec filling stations, epoxy resins, polysulfides and polyurethanes can be removed from larger containers and filled on-demand with the exact quantity required. The dosing is volumetric on a component or a filling container. A typical application is dosing in so-called inserts (thread inserts). The compact arrangement of the components on a mobile frame guarantees the operator maximum flexibility. The design as a stationary system has already been implemented several times.

Our XR-based aircraft maintenance simulator is officially certified by the Ministry of Land, Infrastructure and Transport (MOLIT) of South Korea for training and education. It provides specialized training environments for the A321, B737-MAX, and B737-800NG aircraft, featuring over 80 detailed modules—including procedures for engine removal, main landing gear installation, and more. This subscription-based simulator is fully compatible with smartphones, tablets, and wearable XR devices, enabling seamless access through a cloud-based web service. Users can train anytime, anywhere—perfect for both remote learning and remote maintenance scenarios. Compared to traditional classroom learning, the XR platform is 4 times more effective and requires only one-third the training time. It also improves user confidence in real-world technical applications by up to 275%. By transforming traditional paper manuals into immersive, interactive training environments, the simulator delivers the next generation of aircraft MRO education for both civil and defense sectors.

- Application of patented expansion technology to resolve narrow space operation. - Equipped with camera function utilizing foldable mast. - Drone take-off and landing system using internal lift. - Equipped with a monitor for situational identification and a console for drone operation control.

Threaded bushing enables localized reinforcement of and attachment to panel structure. Supplied with disposable installation fixture. 1.25" Flange Diameter. SIZES: Imperial fine thread sizes from 10-32 (.190"-32) to 3/8-24 (.375"-24), Imperial coarse thread sizes from 8-32 (.164"-32) to 3/8-16 (.375"-16), and metric thread sizes from M5 to M8. 1.25" Flange Diameter. Grip lengths from 0.25" to 1.50". MATERIALS: Aluminum, 300 Series Stainless Steel, A-286 Stainless Steel, 316 Stainless Steel, and Titanium. Optional epoxy primer. FEATURES: Standard 1.25" diameter flange, 0.75" x 1.25" trimmed flange optional.

Receives vibration signals from an accelerometer installed on the aircraft engine and monitors engine vibration. Processes real-time vibration signals and converts them into IPS AVG units for output. Developed for localization, achieving 50% cost competitiveness compared to equivalent products. - x1 MIL-STD-1553B - x2 UART(RS-422/485) - x2 Accelerometer sensor - Sample rate : Up to 5,000Hz - Size : 220 x 206 x 52 (mm) - Weight : 1.75Kg - Environment : MIL-STD-810G - EMI/EMC : MIL-STD-461G - Power : MIL-STD-704F (28VDC, 10W)