The MD70MH-DroneCAN is an 11.6mm, metal gear, 13-gram micro servo for higher voltage applications. Featuring a single output ball bearing, cored brush motor, and magnetic rotary encoder, the MD70MH-DroneCAN is often used in compact fixed wing UAV and drone applications where space and weight are mission critical concerns. The MD70MH utilizes DroneCAN (formerly UAVCAN) control at a voltage range from 4.8~7.4 volts. #UAV #UAS #UGV

Solution Overview EagleEye is a a synthetic data generation & management platform for AI training that integrates image generation, LLMOps, and MLOps. It automates high‑quality dataset generation, labeling, and model validation—and has been certified “military suitable” and delivered first to the ROK Army AI Center. Main Features Image generation with text/image prompts; object/background customization LLMOps: prompt understanding + image–text labeling workflow MLOps: CV model training/validation, dataset versioning, experiment tracking End‑to‑end pipeline from data preprocessing to model deployment Data augmentation and management for scalable, repeatable training Key Advantages Certified “military suitable”; meets defense operational requirements First AI solution supplied to the ROK Army AI Center, proving reliability One‑stop synthetic data + model ops cuts development/validation time Fully in‑house stack enables rapid updates and mission‑tailored customization 2025: First AI product delivered to the ROK Army AI Center for defense AI projects Used to generate and manage high-quality synthetic imagery for military AI model training and validation

The SC-HPCRTM is a Rear Transition Module (RTM) designed to extend the I/O functionality of the HPC2812 high-performance computing board. It can be mounted on the rear side of the VPX backplane to enhance system connectivity and I/O flexibility. Since the HPC2812 board consists of two computing nodes, the SC-HPCRTM provides dedicated interfaces for each node, including Ethernet, USB, MMCX, and Mini-HDMI ports, ensuring optimal data communication and display output performance in mission-critical embedded systems.

Near-field Ranges calculate Far-field pattern based on amplitudes and phase samples in radiating near-field region mathematically. Near-field Ranges have various testing configurations-planar, cylindrical and spherical. Planar Near-field range is suitable for directional antennas. Cylindrical Near-field range is suitable for antennas with wide side/back lobes and fan beam antennas. Spherical Near-field Range is suitable for any type of antennas. You can choose reasonably defending your conditions. MTG has many experience supplying Far-field ranges as well as Near-field ranges. MTG work with many companies including munitions industries, laboratories, telecommunication corporations, and antenna corporations. We can provide a series of positioner, probes and Near-field measurement software.

C-UAS 30kW SBC HEL Source

This is a contact-type and non-contact optical cable assembly for high-speed transmission of large-capacity signals such as video signals. It is a cable assembly for optical signal transmission in compliance with MIL standards by utilizing a contact/non-contact connector developed by Yeonhab Precision.

The fully redundant DA 30-HT-D has been developed for applications with the highest reliability demands. The redundant – two channel – design of the actuator allows continuous operation even if one of the two channels has failed. All major components such as the electric motors, control and communication electronics, and power supply are available twice (redundant). The position sensor features a three channel design (for 2 out of 3 voting). Additionally, there are several sensors integrated to provide diagnostic information such as current consumption, supply voltage levels and temperature readings. All major components of the actuator are continuously diagnosed by the microcontrollers of the actuator and its health status can be read via the redundant RS485.

Plane Windows are used as substrates for a variety of applications, such as laser window, output couplers, beamsplitters, beam combiners, mirrors, dichroic filters and plate polarizers. Considerations in selecting window substrates include transmission range, absorption coefficient, incident laser power density and environmental factors such as pressure, temperature, moisture, abrasion and corrosion. Plane Windows listed under UV / VIS / NIR substrates are specified for applications involving coating wavelengths 193nm ≤ λ〈2.0 μm. Units for these substrates are given in mm. Plane Windows listed under IR substrates are specified for applications involving coating wavelengths λ≥ 2.0 μm. Units for these substrates are given in inches. Refer to the THIN FILM COATINGS section for information on coatings that can be applied to these substrates.