Original compact design and long-term production know-how. System reliability and overall competitiveness.

The AMT-206-1 composite tail rotor blade is a direct replacement for Bell 206A and 206B series helicopter tail rotor blades. Now fitted with a new style of feathering bearings manufactured by KAMATICS. These bearings provide a longer life expectancy, with a patented lining that provides lighter pedal loads and a higher level of chemical resistance, compared to that of the standard fabric Teflon-lined bearings. The AMT-206-1 tail rotor blade has a non-symmetrical airfoil section and incorporates a swept tip. The T/R Blade is primarily fabricated from uni-directional Graphite (carbon fiber) and Aramid (Kevlar™) continuous fibers suspended in an epoxy matrix and is fitted with a nickel abrasion strip on the leading edge. The abrasion strip is bonded on using a urethane adhesive. The AMT-206-1 composite tail rotor blades have a 30% cost advantage, twice the lifespan, higher strength and thrust, and a substantial noise reduction, making them safer and ideal for helicopter operators flying in noise-sensitive areas like national parks and built-up areas.

Portable thermal target with day/night combined shooting training. Application of advanced thermal sensing technology to realistically reproduce various combat situations to improve the user's shooting ability. Heat generation performance can be achieved through multiple fires, increasing shooting training efficiency and reducing operational costs.

CAPHMICRO has the ability to design and manufacture wire harnesses and cable assemblies for defense, aerospace, and space launch vehicles/satellites. We design and manufacture in compliance with IPC-620 and J-STD-001 standards. Additionally, we have a global supply chain capable of quickly supplying a wide range of materials. We provide comprehensive solutions for wire harnesses, from design through to manufacturing and inspection.

STX Engine produces medium speed engine driven power generation equipment that can satisfy customers 100% by ideally combining medium speed engines, which have been collectively produced at our Changwon factory since obtaining licenses from the mid 1970's from MAN ENERGY SOLUTIONS in Germany and NIIGATA POWER SYSTEM in Japan, with a power generation system designed with rich experience in the area of system engineering. By installing diesel engine power generation equipment in locations across Korea and overseas, such as on islands, remote areas, resorts, etc., where no public power supply is available, as well as industrial complexes and hospitals which require good source of power, and factories receiving expensive public power supply, etc., our customers can confirm the investment effect within a short period of time after experiencing the power supply we make available to them, as well as low installation and operation costs and maximized availability of the equipment.

Modular and scalable, our Ground Combat Indoor Trainer’s (GC IDT) multiple configurations cover a rich variety of weaponry, including realistic small arms, support and anti-tank weapons. Highly realistic and durable replica weapons, a lifelike virtual weapons simulator and incredible accuracy combine to further enhance your troops.

Wing shells, side shells and fuselage sections are usually made of carbon fibre composites and glued together during the production process. With many components, a groove or an open edge remains after the bonding process, which must be filled or sealed. A modified two-component epoxy resin is often mixed and then applied manually. This often entails long production times and complex quality controls. Equally high material costs due to the processing of materials from cartridges. ViscoTec defies short pot life and materials that are difficult to handle: Thanks to a coherent overall system from material removal to material application, this process can be automated. The two components are taken separately from cartridges, hobbocks or drums and fed via hose lines to a two-component dosing system. Only at the very end of the process they are mixed in a static mixing tube and applied to the substrate (e.g. via a nozzle). The process is controlled and monitored by pressure sensors.