This Control Actuation System (CAS) is a guidance system for unmanned flying objects. It consists of three MPS fin actuators that each independently position an aerodynamic fin. The maximum angle of incidence is ±8°, which allows the device to carry out highly precise dynamic manoeuvres. The miniature fin actuators that make up this Control Actuation System are manufactured by MPS Microsystems and were designed based on customer specifications. Designed to guide a very small object and disposing of an extremely limited space, these fin actuators meet strict requirements in terms of performance, weight - less than 100 g - and dimensions. To reduce the length of this actuator, MPS Microsystems used part of the screw length as the motor axis. This screw is equipped with a very compact 4-point contact bearing that simultaneously absorbs axial and radial loads. The angular play on the aileron axis is less than 0.1° rms. This actuator meets the storage and vibration requirements of military equipment.

Yuan Thor platform serves as the computational core for autonomous systems. Powered by NVIDIA® Jetson Thor™ (128GB LPDDR5X, 2560 CUDA cores, 96 Tensor cores), it delivers up to 2070 FP4 TFLOPS of AI performance for real-time sensor fusion, data analytics, and edge decision-making. Thor supports 16× MIPI CSI-2 cameras, audio in/out, CAN Bus, UART, I²C, SPI, and GPIO, enabling precise, low-latency responses for robotics, industrial automation, and autonomous vehicles.

The ACTUS® CORE-2 Dot Sight is a high-performance optical device chosen as the Warrior Platform Selection Equipment by the Republic of Korea Army (ROKA). Built to MIL-SPEC standards, it is a further development of our ACTUS® CORE-1 Dot Sight. Housed in a smaller form factor, the ACTUS® CORE-2 meets rigorous military requirements, including extreme temperature resistance, shock testing, waterproofing, and protection against fluid contamination. Designed for durability and reliability, the CORE-2 enhances operator safety in the field, ensuring quick and precise target acquisition during critical missions.

i3system’s line scanning X-ray detector platform, XID-C15DP/XID-C24DC, is a high performance and cost effective solution for dental panoramic, cephalometric applications. i3system’s direct type sensor ensures the most sharp images among the current products in the market. XID series is designed for compact size and easy installation. High DQE(Direct Quant㎛ Efficiency) enables high performance at lower dose of X-ray. Introduction Indirect type X-ray detector uses the scintillator and the photo-diode(CCD or CMOS sensor) for conversion of the X-ray into the light and for taking images espectively. But the light scatters and goes extinct during it passes through the scintillator and reaches to the CCD or CMOS sensor. As a result, it is inevitable to get blurred image. In the mean time, XID C15DP, direct type detector, converts X-rays into electronic signals directly without conversion process of light. Because X-ray is not converted into light, it provides much sharper images than indirect type detector. XID C15DP is designed to compact for easy installation. It provides Gigabit Ethernet port on the detector for easy configuration. Instead of Gigabit Ethernet, camera link or optical interface can be provided according to requirements of users.

“The Meeting Point” is a private lounge where exhibitors can meet with guests, take a break from the show floor, and connect with industry peers. The Kallman Café serves refreshments throughout the day, offers a place to charge your phone, and provides exclusive WiFi service.

D-100 MIL 1&2 operating Instructions.

High-power laser weapons targeting objects at 0.5 ~ 4.0km distances require optical components with sub-nm wavefront error precision. Our Company has successfully developed aspherical polishing and high-power laser coating technologies for Ø300 ~ 550mm optical components through defense project experiences. measurement technology 1) Laser Induced Damage Threshold(LIDT) - The evaluation to confirm the durability of optical components is called LIDT (Laser-Induced Damage Threshold), which is defined as "the maximum amount of laser radiation incident on an optical component when the expected probability of damage is zero" (ISO 21254). In other words, it represents the maximum intensity or power of laser that an optical component can withstand, making it a critical requirement in laser weapon systems. - Our company has established LIDT measurement technology and in-house facilities developed in accordance with ISO 21254 standards. When compared with LIDT test results from domestic and international companies during laser weapon system development, we have demonstrated measurement technology and accuracy that meets or exceeds industry standards. While overseas companies require more than one month for verification processes, our company can immediately provide reliable data through our LIDT system. 2) Cavity Ring Down Spectroscopy(CRDS) - When the reflectivity is 99.997%, this may not present significant issues in low-power laser applications. However, in high-power laser components, even the 0.05% of light that passes through the optical mirror can cause problems in vulnerable parts of the system, including rear optical instruments, bonded lenses, and control cables. Therefore, measurement and evaluation methods for high-reflectivity optical mirrors are extremely important. - Currently, the transmittance and reflectance of optical components are generally measured using spectrophotometers, but measuring reflectance levels of 99.5% or higher is not possible with this method. CRDS (Cavity Ring-Down Spectroscopy) technology is required to achieve measurement resolution beyond that of spectrophotometers, and our company has established this system to measure the reflectance of various optical components. This is a critically important technology for responding to high-power laser weapon system development requirements.

The SCXMC-SFPDP is a high-speed optical communication card that operates through the XMC interface of the SBC. It is designed to transmit and receive large volumes of data between the SBC and other devices in real time. Unlike Ethernet, which can be difficult to synchronize, the SCXMC-SFPDP uses optical communication with synchronization signals, enabling precise and high-speed data transfer. It offers low response latency (<40 µs) and supports four transmit/receive channels at 3.125 Gbps per channel. A device driver program is required for 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 to ensure reliable real-time data transmission between mission-critical subsystems.