The VPX6-C6 which provides a full 6U OpenVPX(VITA65) is a Single Board Computer(SBC) that combines the power, versatility, cost-effectiveness of the 8th generation Intel mobile one-chip processor solution with the reliability. VPX6-C6 is based on the Intel i7-8665UE CPU that has quad cores running at 1.7GHz and providing a 32Gbytes of highbandwidth DDR4 SDRAM. Intel i7 processor includes an integrated Intel UHD 620 graphics engine, providing discrete GPU performance with OpenGL for graphics-intensive applications. For storage application VPX6-C6 provides the built-in 80GB SLC NVMe SSD solution via PCIe x4 lanes as well as the external SATA expansion through VPX site. The VPX6-C6 satisfies the demanding applications ranging from tactical aircraft to armoured vehicles to rugged industrial systems, with its rich complement of features and I/O including Intel Graphics, Integrated Platform Management Interface, Gigabit Ethernet, DIO, Serial channels, USB ports and more.

EM21 is designed to be used behind the EOST EDS Red Dot Reflex Sight. EM21 can be mounted right behind the EOST EDS (or any of other dot and holographic sight) to give 3 times magnifying view. EM21 helps shooter convert the optical magnification so that he can have better target acquisition and fast target engagement capability. The ability to transition between the two distances almost instantly and still maintain weapon accuracy is easily achieved with our EM21. Simply switch the magnifier out of the way for a quick 1X targeting. EM21 can be used for hunting/recreational purpose.

It is designed to be suitable for difficult environments and can be applied to high torque and angle control. Applications are Missile defense, Torpedoes, Anti-drones system, Underwater drones.

From the rocket launcher to its upper assembly, the bomb rack unit, completing a full weapon system as one set. The rocket launcher is a weapon system independently designed to launch guided missiles or rockets through 7-tube and 19-tube launchers, enabling both single and multiple firings. Through its development, independence of the weapon system has been secured, and structural stability has been achieved by applying a design that considers aircraft vibration and aerodynamic effects. In addition, it is equipped with the capability to receive the system’s firing signal and ignite the rocket. Based on the successful development in 2017 of the 7-tube 2.75-inch rocket launcher assembly for helicopters, the company is now independently developing upgraded versions of the 7-tube and 19-tube rocket launcher assemblies. Through this effort, we are securing scalability for application to next-generation helicopters and UAV systems.

For UAVs requiring both high-accuracy positioning and robust communication, Harxon’s compact, multifunctional helix antennas, such as the HX-CUX005A and HX-CUX618A, provide an integrated solution. Combining GNSS, WiFi, and Bluetooth antennas, these models deliver centimeter-level positioning alongside reliable data transmission across 2.4GHz, 5.8GHz, and 7.2GHz bands. The advanced inter-system design ensures exceptional signal clarity by effectively minimizing mutual interference, making them ideal for demanding UAV applications.

Magnetic sensors (Hall effect) for air and land applications fly by wire

It is a hybrid-powered(Engine + Generator) multicopter system that significantly overcomes the limitations of short flight times typically associated with battery-powered drones. It can carry up to 10 kg of mission equipment and perform operations for up to 2 hours, with the capability to autonomously land on moving vehicles and naval vessels. Its versatility is further enhanced through the development of various mission equipment, making it suitable for multipurpose applications.

The SCVPX-SSGM (Synchronous Signal Generation Module) generates synchronization signals to coordinate the operation and timing of various radar system components. It can generate synchronization signals using an internal clock, receive an external clock, or regenerate synchronization signals from external sources to maintain precise timing cycles. A device driver program is required for configuration and 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, providing precise timing synchronization across mission-critical subsystems.