Our LiDAR uses a custom-designed laser that separates 1064 nm and 532 nm wavelengths from a single source, with two dedicated receivers capturing each set of data independently. Inside the system, the linear laser beam is refracted at a 10-degree angle through a prism to enable circular scanning. An RF module is also integrated for real-time equipment status monitoring. From circuit board design to component selection, every part of this system was developed in-house by multiple institutions. As a result, we have successfully eliminated reliance on foreign technology.

The SCVPX-SSGM (Synchronous Signal Generation Module) generates synchronization signals to coordinate the operation and timing of various radar system components. It can generate synchronization signals using an internal clock, receive an external clock, or regenerate synchronization signals from external sources to maintain precise timing cycles. A device driver program is required for configuration and operation, and the Linux driver can be downloaded from Seedcore’s product page. Drivers for other operating systems can be developed upon request. This module is deployed in the L-SAM multi-function radar system, providing precise timing synchronization across mission-critical subsystems.

- Interior lighting used by removing it from the upper cockpit mount - Adjust the DIM/BRT brightness by operating the knob switch - NVIS WHITE per MIL-STD-3009

Model-Based Systems Engineering (MBSE) is a methodology that integrates design, analysis, and verification activities throughout the system lifecycle using architecture models. By modeling requirements, functions, structure, and behavior, MBSE supports consistent and informed decision-making. Ansys SAM (System Architecture Modeler) supports the latest system modeling language, SysML v2, and enables both graphical and textual modeling, real-time collaboration, and model management. Ansys ModelCenter integrates various engineering tools and builds automated workflows, enabling what-if simulations and trade studies. By connecting architecture models with simulation models, it supports consistent design analysis and requirements validation using a single source of truth (ASoT).

Custom Technical Elastomeric Solutions

- System Construction - U-Caster-HT: Network video transmission device - KASSO® server: Connects Tx and Rx in a cloud environment, streams video to the receiving device, and manages connected devices (settings, transmission/reception connections, etc.). - Video receiving device: MonaLisa-Rx device (U-Caster-HR) or computer/smartphone - Receiving playback software: Web browser or WebRTC streaming playback program

The engine features advanced Full Authority Digital Electronic Control (FADEC) and an integrated Engine Monitoring System (EMS) to keep tabs on engine health, monitor usage and streamline troubleshooting. Modular design makes the engine faster and easier to repair, enabling maintenance teams to put training instructors and student pilots where they belong, back in the air, quickly and efficiently. Safety is paramount in the flight training world and the T-100 provides an additional safety margin by using two F124 engines. The F124 offers all this and more, backed by the global resources of Honeywell and a reputation earned in producing some of the world’s best turbine engines over more than six decades.

1. Integrated Production System Equipped with in-house CF-SMC compression molding equipment, we provide a complete one-stop solution—from sheet production to final composite molding—tailored to customer requirements. This ensures both exceptional quality and production efficiency. In line with ESG management, we also utilize our proprietary recycled carbon fiber technology to recycle CFRP waste generated during CF-SMC production. 2. Moldability & Productivity ILSUNG’s carbon fiber SMC technology offers superior moldability compared to conventional continuous CFRP and aluminum. With a rapid curing speed of about 1 minute per 1 mm thickness, it enables high-speed, mass production. Complex and precise geometries can be molded reliably, delivering strong competitiveness for both simple and highly engineered components. 3. Exceptional Lightweight Performance CF-SMC has a lower density than aluminum castings while maintaining high mechanical strength, delivering the optimal lightweight solution for industries where weight reduction is critical. 4. Balanced Performance This technology not only achieves lightweight properties but also ensures a well-balanced combination of mechanical strength, corrosion resistance, dimensional stability, and durability. It maintains stable performance under extreme environments and repeated loads, making it highly suitable for automotive, aerospace, and defense applications where reliability is critical. 5. Cost Competitiveness Compared to CFRP, it provides a lower-cost structure and high-speed molding capability, ensuring excellent price competitiveness. This significantly improves cost efficiency in industries that demand large-scale production—such as automotive, aerospace, and defense—and strengthens its growth potential within the composites market.