Product Description and Features 1. Usable Time: Approximately 4 hours 2. Breathable Coolant: Semi-permanent (reusable) 3. Oxygen cylinders and valves: Inspected by the Korea Gas Safety Corporation (KGS) 4. Materials: Outer fabric and PET material are heat-resistant. 5. Drain Button: A device for removing moisture depending on the usage time. 6. Supply Button: A device that temporarily provides a large amount of oxygen. 7. Facepiece: Includes a manual defrost for long-term use. 8. Electronic Pressure Indicator with IT Technology: Life-Saving Alarm (PASS) function, ambient temperature display, container pressure display, automatic alarm for low pressure (approximately 50 bar), usable time display, battery status display, and NFC-based personnel monitoring system (free software provided). 9. Accessories: Bone conduction communication equipment can be applied.

Introducing the FoldIR 30-450mm f/3.4 continuous zoom lens with Ophir's innovative folded optical design, offering lightweight, compact design while maintaining long optical lengths and improved tolerance sensitivity. This design ensures exceptional performance even in challenging environments, addressing stabilization and athermalization issues. Its unique f/3.4 aperture guarantees superior image quality, surpassing larger aperture zoom lenses in diffraction limit MTF and IR signal collection. The lens features a built-in mechanical shutter for NUC control, enhancing image quality through Ophir's control system. Weighting under 2kg, offering an impressive detection range of over 20km, and a horizontal field-of-view of 26.9º (WFOV) and 1.7º (NFOV). This compact, lightweight, long-range, high-performance lens is the ultimate selection of for optical air-land-sea optical gimbals and payloads. Key features include: • Efficient folded optics design for min. volume use • Physical shutter for NUC • Designed for MWIR 10μm SXGA sensors • For air-sea-land gimbals and payloads • Weight <2kg • Detection range >20km • HFOV 26.9º WFOV/ 1.7º NFOV

The RFcore Radar series are FMCW type radar and were developed to detect/track small air targets. The major difference between three models is detection performance. RX32B is fundamental model. RX128B have four times larger radar than RX32B. RX192A have six times larger radar then RX32B. The number of the product name means the number of antenna elements. All have compact and lightweight physical architecture that concentrates all the components required for radar, such as antenna, RF components and radar signal processor, in a small single housing. Transport can be carried in the carrier box and can be easily carried by one person. For installation, you can use a commercially available camera tripod. The weight is about 7.5kg (RX32B) and 15.9kg (RX128B), and the lower connection part is compatible with the tripod connection for the camera. Power supply requires 12VDC (RX32B) and 24VDC power (RX128B and RX192A). When using a battery, it is possible to connect a 12V battery or 24V battery to radars. Usage time may vary depending on the battery capacity. RFCORE recommended the constant power supply. Transfer of Status and BIT information and simple control of the RX32B, RX128B and RX192A are possible with a web browser using the Ethernet connection for authorized users. Using the terminal program provided with the radar, you can view the radar control and detected target information in real time. All RX Radar series’ Power Amp and Core Chip were designed using RFcore's own products.

Maximum Control for your interactive graphical displays. Developing HMIs for safety- and mission-critical avionics and embedded displays only gets more demanding. VAPS XT offers HMI designers, systems engineers, and embedded engineers maximum control and flexibility for creating interactive real-time graphical displays for avionics and other safety-critical embedded applications. With an open architecture and integrated logic capabilities, VAPS XT provides the essential features for the design and deployment of certifiable cockpit displays. VAPS XT provides a model-based environment supporting all phases of development from initial concept to embedded deployment. Through a flexible porting structure, VAPS XT applications can be easily deployed to virtually any embedded target with excellent performance.

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.

Safran Engineering Services was selected by Honeywell for the STC development for multiple rotorcrafts. Safran Engineering Services took responsibility as the design authority for the design, development, integration, installation, testing, tech pubs and STC approval under FAA, EASA and TC agencies.

SAIT CIRUS has been fortunate to receive generous funding from the Canada Foundation for Innovation (CFI), Natural Sciences and Engineering Research Council of Canada (NSERC), and Prairies Canada to support the development of our research centre and supporting applied research projects. Our research centre features a diverse and advanced fleet of remotely piloted aircraft, sensors, survey equipment, data processing and modeling software, and hardware. Some of our remotely piloted systems are the only ones in North America, making CIRUS a leading research centre on the continent.

Lumir, in collaboration with the Electronics and Telecommunications Research Institute (ETRI), developed and integrated this device for lunar exploration aboard Danuri (KPLO, the Korea Pathfinder Lunar Orbiter), Korea's first lunar probe. This device successfully demonstrated its performance by receiving BTS music videos transmitted from the Moon to Earth, achieving Technology Readiness Level (TRL) 9.