CATIS™ is an ultra-high-resolution, small satellite imaging radar device independently developed by Lumir. It consists of three components: the radar signal transmission/reception device SCEU, an active phased array antenna SATA, and a data downlink antenna KaPA. This X-band imaging radar device is designed for small satellites weighing 150 kg, offering an ultra-high resolution of 0.3 m. It transmits wideband RF signals to the observation area while orbiting at an altitude of 500 km and receives the reflected signals to acquire Earth observation data.

Nas-52 or Night Attachable Sight gives law enforcement and military personnel the versatility in operations through attaching simple night vision device prefixed to daytime sight which makes available to engage in surveillance or to acquire targets regardless of ambient light conditions. NAS-52 is a clip-on system designed to mount in front of any kinds of daytime riflescope, and it gives daytime riflescope the night vision capability. Sniper or designated shooter using daytime scope will significantly need this performance for night time operation.

Next-generation satellite multi-band terminal system development project

Temperature Calibrated Pressure Sensors The Air Data Unit features very high accuracy absolute and differential pressure sensors. These are factory calibrated over a wide temperature range to further increase measurement accuracy and provide the best air data possible through varying conditions. Power Up Self-Calibration On top of factory temperature calibration, every time the air data unit powers up, it performs a self excitation calibration to adjust for small deviations of bias and scaling error. This allows the system to compensate for calibration aging and means that it never needs to be returned to the factory for recalibration. Reliability The Air Data Unit is built on top of a safety oriented real time operating system and all software is designed and tested to safety standards with fault tolerance. Its communication interface is optically isolated and the hardware is designed and tested to MIL spec.

The compact and lightweight device ranges distance up to 6,000 m and provides accurate angle measurements. The PLRF25C is ready for combat operation in the most extreme conditions. It is available in black, green and desert.

< Frequency Range > ● 500 ~ 2700 MHz < Output Power (W) > ● 100 < Gain (db) > ● 50 < Power Supply (V) > ● 32.5 < Current (A) > ● 14 < Dimension > ● 208.3 x 91.4 x 26.9 (mm)

Key Features Enhanced speed and precision with a powerful 30W laser Supports a wide range of high-performance materials including Nylon 11, Nylon 12, and TPU Dimensions: 685 x 645 x 1065 mm Build Volume: 165 × 165 × 300 mm Weight: 114 kg (excluding build chamber or powder) Specifications 30W fiber laser Maximized powder reuse to minimize material waste ________________________________________

Green Optics possess proprietary CVD-based Zinc Sulfide (ZnS) production technology for defense and industrial multi-wavelength optical materials. We have core technological capabilities to manufacture high-quality ZnS products tailored to meet diverse customer requirements. ZnS Material Optical Performance and Processing ZnS materials produced through CVD processes provide high transmittance exceeding 70% in the SWIR wavelength range (8-12 μm). When these materials undergo additional Hot Isostatic Pressing (HIP) treatment, the crystal structure undergoes recrystallization, improving transmission characteristics to achieve over 70% transmittance in the visible (VIS) wavelength range of 0.45-0.8 μm. This process extends the application range of optical materials previously limited to SWIR and LWIR bands, delivering superior optical performance across multi-wavelength regions from VIS to LWIR. Material Specifications: - STD-ZnS (Standard ZnS Material): Manufactured via CVD process, exhibits transmittance exceeding 70% in LWIR wavelengths (8-12 μm) with high physical hardness (Knoop hardness: 210 kgf/mm²). - MS-ZnS (Multispectral ZnS): Converted from STD-ZnS through HIP processing, extends wavelength range into the visible spectrum. While crystal structure recrystallization during this process reduces hardness somewhat (approximately 150 kgf/mm²), it still meets MIL specifications. This dual-processing approach enables comprehensive wavelength coverage while maintaining military-grade durability standards.