The FOR-10T/R supports Base configurations (including 10 Taps) and enables long-distance transmission of image signals via optical fiber, along with RS232 control signals and CC1~4 trigger signals. These signals are transmitted to the PC. This product supports transmission distances of up to 2 km, and by replacing the optical module, even longer distances can be achieved.  Fully supports the Camera Link interface (Area/Line Scan).  Supports Base (including 10 Taps) configurations (CC1~4, RS232, 10 Ports (Taps), LVAL, DVAL, FVAL).  Supports pixel frequency from 20 to 85 MHz.  Maximum transmission distance: 2000 m.  Enables lossless transmission.  Supports all external full-duplex RS232 communication speeds on a single port.  Features a locking DC power jack (Molex).  Camera link Connector Type : SDR connector.

Superior Performance: Stable braking power under extreme operating conditions, from taxiing to high-speed landings. Proven Reliability: Robust structures and advanced materials that guarantee long service life with minimal maintenance. Optimized Safety: Redundant design features and compliance with international aviation standards to meet the highest levels of operational safety. Custom Solutions: Tailored brake designs to fit the specific requirements of fixed-wing aircraft, rotary aircraft, and unmanned aerial platforms.

Our transport drone is designed for efficient and reliable cargo delivery. With precise and stable flight performance, it supports real-time monitoring of delivery routes and environments through an advanced camera system, ensuring safe and timely operations.

High-Density Space-grade NAND Flash memory : 1. Density : 128Gbit (2G x 8bit x 8chips) NAND Flash 2. Package Type : 54 Pin SOP (Small Outline Package) 3. Radiation : TID > 60 krad, SEL (TBD)

The FORCE2C is a rugged 3U VPX flight-certifiable mission computer featuring a QorIQ T2081, full avionics I/O, safety certification artifacts (DO-254/178C up to DAL A), and FACE compatibility. • QorIQ T2081 (1.8 GHz, 4 cores), SBC314C SBC: 4 GB DDR3L, 16 GB SSD, PCIe Gen 2 ×4 • Avionics I/O: ARINC 429 (8 TX, 10 RX), MIL-STD-1553 (4), discrete I/O, serial (RS-422), GbE, USB, RS-232/422 • Rugged conduction-cooled build; MIL-STD / DO-160 rated; −40 °C to +71 °C • DO-254/DO-178C certification artifacts available (DAL D to A) • FAA certified (SOI complete), FACE compliant

The core of the next-generation intelligent protection system Efficiency in the battlefield environment by building a highly intelligent weapon system with multiple spraying control technology for precise injection and remote control of multiple objects (intelligent mines), complex sensor-based intelligent ammunition design technology, and platform interlocking and cluster attack protection system integrated design technology. Development is underway to maximize effectiveness. Instead of conventional mines, we integrate technologies used in the 4th industrial revolution such as wireless power transmission, wireless communication, complex sensor control swarm control algorithm, and signal processing between location information, and develop the core technology of the intelligent mine system to efficiently operate the weapon on the battlefield. You can maximize the effectiveness of the system.

Signaty X IR Helmet Strobe is a next‑generation, domestically developed IFF LED device. It features IR plus RGBW color LEDs (red, green, blue, white), all housed under a high‑strength polycarbonate dome. It supports multi‑wireless synchronization via short‑range communication, GPS/RTC, and mesh relay—enabling simultaneous use of RGB LED + IR or RGB LED + white LED, with up to 42 pattern synchronizations (expandable to 252) using 256‑bit encrypted data. Runtime reaches up to 130 hours (LED 130 h / IR 125 h) on a single AA battery. Built to MIL‑STD‑810G and KC standards, it ensures drop, dust, sand, immersion, and temperature resistance. Manufactured in Korea with domestic service support.

Hyundai Elevator is leveraging its expertise in elevator technology to develop infrastructure for urban air mobility (UAM). We are working on takeoff, landing, charging, and maintenance platforms that can be built on top of existing buildings, solving space constraints in congested urban environments. Our initiative is backed by their manufacturing expertise and government support, though global building codes may present a challenge in scaling the solution.