- Minimizing the station's door opening and closing time to support drones' quick entry and exit. - Structural design to minimize noise and vibration when opening and closing the door - Design and implementation of an interface for interaction between an automatic door system and a drone. - Automatically opening and closing door system - Automatic detection of drones through cameras and sensors, and safe storage and charging functions

RAIBO2 is a quadrupedal robotic platform that uses four legs to navigate to designated locations, observe its surroundings. Based on state-of-the-art robotic control technology, deep reinforcement learning enables highly dynamic, robust, and efficient locomotion. Furthermore, the in-house integration of hardware and software facilitates energy and design optimization, while allowing for extensive customization.

- Seamless integration with all CAD models - Specialized for UAM and eVTOL design - Supports analysis of complex aerodynamic phenomena - Accurate prediction of airflow under subsonic and supersonic flight conditions - Detailed analysis of boundary-layer flow separation and viscous effects

Wheels used on special vehicles use high-strength forged aluminum wheels because one tire per axle is used for driving on paved roads, unpaved roads, open fields, and sharp turns. Accordingly, our company secures static and dynamic strength considering driving conditions through optimized design technology and maximizes excellent quality and reliability through our own performance tests such as high strength, weight reduction, and shape optimization, and supplies wheels of various specifications for use in special vehicles.

Intel® 14th/13th/12th-Gen Core™ 24C/ 32T 35W/ 65W CPU Affordable IP66-rated design for waterproof and dustproof Up to 96GB DDR5 4800 SODIMM -25°C to 70°C wide-temperature fanless operation 3x 2.5Gb and 1x Gb Ethernet ports via M12 X-coded connectors, with 802.3at PoE+ option 1x waterproof USB3.2 Type-C port supporting alternative mode for DisplayPort and USB3.2 dual output 8V to 48V DC input with built-in ignition power control

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.

It is commonly used in industrial and other devices to generate triggers ranging from one to several thousand FPS, ensuring precise timing synchronization with various devices. Periodic Mode: Continuously generates trigger signals after configuration. Burst Mode: Generates a single trigger signal upon receiving the best command via serial communication. *** Product Expansion and Usage ***  Four Operating Modes  Periodic mode: Generates a single-cycle signal based on the configured frequency and duty ratio.  Burst mode: Generates a single-cycle signal synchronized with a software trigger.  External trigger mode: Generates a single-cycle signal synchronized with an external trigger.  External trigger bypass mode: Distributes signals triggered externally.  Connect the trigger output signals from a Master Trigger Generator to a Slave Trigger Generator (as shown below).  By connecting one of the Master TG’s Trigger Outputs (1 to 16) to the Slave TG’s External Trigger Input: Outputs 1 to 15 of the Master TG remain unchanged. Outputs 16 to 31 of the Slave TG will mirror the Master TG’s Trigger Output. (Note: Each trigger signal passing through a TG experiences a delay of ten ns. However, since trigger outputs operate in the range of tens to thousands of Hz, users will not notice the delay).  Example with 17 TGen-16C units: Produces up to 256 Trigger Output Channels (16 × 16).