• 12.63L • 500D Cordura® • 3 hydration ports • Bottle pockets on both sides • Internal hydration pocket • PALS webbing for MOLLE attachment • Detachable shoulder strap • Drag handle • Internal management storage zipper pocket • Fixed beavertail • Beavertail MOLLE webbing • Antibacterial/FR treated padding spacer mesh • Weight 2.79 pounds (1265g) • Size: 16.5 inches high x 8 inches wide x 5 inches deep Colors: MC (MultiCam) BMC (Black MultiCam) BK (Black) RG (Ranger Green) CYT (Coyote Brown)

Fast and Intuitive Quality Inspection With precise AR overlay technology, deviations between 3D design data and real-world objects can be identified instantly. This enables fast and accurate quality inspections on the spot. Optimized and Lightweight 3D File Processing Supports the four most popular 3D file formats: FBX, GLTF, OBJ, and STL. Lightweight processing ensures faster matching and smoother inspection workflows. From Inspection to Report — All in One Inspection results can be recorded and documented with image captures, drawings, and notes. Final reports can be exported in PDF, XLS, or CSV formats, making them easy to share and manage.

The iGRVT-50 is InterGravity Technologies’ next-generation green-propellant orbital transfer vehicle (OTV), purpose-built for the rideshare launch ecosystem. iGRVT-50 enables small payloads (up to 15–20 kg class) to be deployed or serviced in a wide range of orbits. Key Features - Payload Capacity : Up to ~20 kg class hosted payloads - Propulsion System : 20 N green bipropellant thrusters (C₂H₆/N₂O) - Delta-V Capability : > 450 m/s - Communications : UHF, S-band TM/TC, X-band downlink

Today, space satellites are moving away from RF Analog based payloads providing low speed telecommunication signaling, to a new Digital Transparent Processor architecture for high throughput satellites. Those architectures increase the demand for rugged and higher speed connectivity. To meet those industry needs, Smiths Interconnect has developed the NXS Series, an advanced high speed, high density interconnect to provide next generation data on demand. Equipped with the Hypertac® hyperboloid contact technology the NXS system can withstand data rate application up to 50 Gbps (per channel) requirements, including extreme levels of vibration, shock and climatic testing above 2100 g. The NXS Series is designed in a robust construction with 4 or 12 high speed quadrax (dual-twinax) modules. The recent EMI Flange addition provides the extra benefit of reducing electromagnetic interference. Each ultra-high density quadrax module contains 2 dual twinax at 100 Ω each pair. It is blind mateable, hot pluggable, with ultra-low mating forces and low outgassing materials. In addition, the solderless PCB mount design reduces the customer’s risk and cost of ownership. The connector is mounted after reflow and has no impact on nearby components.

1. Integrate the most effective aspects of Visible and IR(Infrared) image. 2. Increase the efficiency through the ability to use in all weather conditions, day or night, including fog.

Titanium Grade 1 Strip Titanium Grade 2 Bars-Sheets and Plates-Tubes and Pipes Titanium Grade 5 ELI Bars-Sheets and Plates Titanium Ti-6Al-7Nb Bars

Compact GPU Computer AMD® Ryzen™ 8640U processor with 6 cores and 12 threads Supports entry level low-profile GPU card Supports up to 32GB DDR5-5600 4x optional PoE+, 1x 2.5GbE and 4x USB3.2 ports 1x M.2 2280 NVMe for storage and 2x Mini-PCIe sockets -25°C to 60°C temperature operation 12V to 35V DC input with optional ignition power control

Seedcore’s VPX Chassis Housing Assembly is designed as a structural platform for Multi-function radar signal processing systems. Featuring a robust 8U 2×5 slot VPX configuration, precision-machined aluminum construction, and excellent thermal management, it ensures high mechanical stability and optimal heat dissipation in demanding defense environments. This chassis housing is deployed in Korea’s key air defense radar systems, including the L-SAM, M-SAM, and LAMD programs, supporting mission-critical radar signal processing architectures.